<?xml version="1.0" encoding="utf-8"?>
<Projects>
	<Project>
		<ID>782</ID>
		<Name>ACE_NIAID</Name>
		<Description>Includes the study of biology using computational techniques and the creation of tools that work on biological data. Also includes the effective use of biomedical data, information, and knowledge for scientific inquiry, problem solving, and decision making to improve human health. A variety of applications, including drug discovery &amp; design using Monte Carlo simulations and evolutionary biology with mutual information calculations. Also genomics and medical imaging analysis.</Description>
		<PIName>Darrell Hurt</PIName>
		<Organization>National Institute of Allergy and Infectious Diseases</Organization>
		<Department>Office of Cyber Infrastructure and Computational Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/451cgt72wj62</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1944987294</ID>
		<Name>AFIDSI</Name>
		<Description>The UW–Madison Data Science Institute, powered by American Family Insurance, is committed to advancing discovery that benefits society through cutting-edge research and cross-disciplinary collaboration. We partner with researchers, industry, and communities to solve problems and deliver products that create value for science, business, and society. We work at the cutting edge of technology such as AI and machine learning, spurring fundamental advancements and their applications in fields including agriculture, medicine, engineering, insurance and risk management, and environmental sustainability.</Description>
		<PIName>Kyle Cranmer</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Data Science Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>55</ID>
		<Name>AMFORA</Name>
		<Description>Amfora is a POSIX-compatible parallel scripting framework that lets users run existing programs in parallel with data stored in RAM on distributed platforms: e.g. clouds, clusters, supercomputers.</Description>
		<PIName>Ian Foster</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>686</ID>
		<Name>AMNH.astro</Name>
		<Description>Department of Astronomy at the American Museum of Natural History</Description>
		<PIName>Mordecai-Mark Mac Low</PIName>
		<Organization>American Museum of Natural History</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/em2w05s9c1uc</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>534</ID>
		<Name>AMNH</Name>
		<Description>American Museum of Natural History</Description>
		<PIName>Michael Benedetto</PIName>
		<Organization>American Museum of Natural History</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/em2w05s9c1uc</InstitutionID>
		<FieldOfScienceID>54.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>829</ID>
		<Name>AMNH_Burbrink</Name>
		<Description>This work explores systematics of snakes using genomic and ecological data.</Description>
		<PIName>Frank Burbrink</PIName>
		<Organization>American Museum of Natural History</Organization>
		<Department>Herpetology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/em2w05s9c1uc</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1492104782</ID>
		<Name>AMNH_Calamari</Name>
		<Description>The evolution of complex anatomical structures using genomics, morphology, and phylogenetic comparative methods. He has studied a broad diversity of mammals, from bank voles to mammoths and mastodons; a major focus of the lab is the horns, antlers, and other bony appendages of even-toed ruminants (Artiodactyla).</Description>
		<PIName>Zachary Calamari</PIName>
		<Organization>American Museum of Natural History</Organization>
		<Department>Natural Sciences</Department>
		<FieldOfScience>Evolutionary Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/em2w05s9c1uc</InstitutionID>
		<FieldOfScienceID>26.1310</FieldOfScienceID>
	</Project>
	<Project>
		<ID>473525047</ID>
		<Name>AMNH_MacLow</Name>
		<Description>Use an N-body code with analytic approximations to gas torques to model the formation of the hypothesized massive objects</Description>
		<PIName>Mordecai-Mark Mac Low</PIName>
		<Organization>American Museum of Natural History</Organization>
		<Department>Astrophysics</Department>
		<FieldOfScience>Astronomy &amp; Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/em2w05s9c1uc</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>453459059</ID>
		<Name>AMNH_Raxworthy</Name>
		<Description>Study the origins of herpatological groups predominantly in Madagascar.</Description>
		<PIName>Christopher Raxworthy</PIName>
		<Organization>American Museum of Natural History</Organization>
		<Department>Herpatology</Department>
		<FieldOfScience>Evolutionary Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/em2w05s9c1uc</InstitutionID>
		<FieldOfScienceID>26.1399</FieldOfScienceID>
	</Project>
	<Project>
		<ID>583</ID>
		<Name>AMNH_Smith</Name>
		<Description>Integrative Models of Avian Speciation</Description>
		<PIName>Brian Smith</PIName>
		<Organization>American Museum of Natural History</Organization>
		<Department>Ornithology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/em2w05s9c1uc</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>320</ID>
		<Name>AMS</Name>
		<Description>Monte Carlo simulation for the AMS experiment</Description>
		<PIName>Baosong Shan</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>LNS</Department>
		<FieldOfScience>Particle Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>153</ID>
		<Name>ASPU</Name>
		<Description>developing genetic association tests using GWAS data</Description>
		<PIName>ilyoup kwak</PIName>
		<Organization>University of Minnesota</Organization>
		<Department>Division of Biostatistics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3chofmlz7p5r</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>535</ID>
		<Name>ASU-CFD</Name>
		<Description>ASU Fluid Dynamics</Description>
		<PIName>Bruno D. Welfert</PIName>
		<Organization>Arizona State University</Organization>
		<Department>School of Mathematics and Statistical Sciences</Department>
		<FieldOfScience>Fluid Dynamics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2104358006</ID>
		<Name>ASU_CoMSESNet</Name>
		<Description>Improving the way researchers, educators and professionals develop, share, use, and re-use computational models in the social and ecological sciences</Description>
		<PIName>Michael Barton</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Center for Behavior, Institutions, and the Environment</Department>
		<FieldOfScience>Complex Adaptive Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>11.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>675</ID>
		<Name>ASU_EvolutionMedicineIT</Name>
		<Description>Project for Center for Evolution and Medicine IT staff</Description>
		<PIName>Kenneth Buetow</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Center for Evolution and Medicine</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>731</ID>
		<Name>ASU_Jacobs</Name>
		<Description>Simulations of radio interferometers</Description>
		<PIName>Daniel Jacobs</PIName>
		<Organization>Arizona State University</Organization>
		<Department>School of Earth and Space Exploration</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>802</ID>
		<Name>ASU_Ozkan</Name>
		<Description>In this research, we are trying to study and calculate the binding free energy of protein complexes with large peptides. The strategy is to apply constant velocity pulling on peptides based on NAMD simulations and statistically calculate the binding free energy by applying Jarzynskis equality.</Description>
		<PIName>Banu Ozkan</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>625</ID>
		<Name>ASU_Pfeifer</Name>
		<Description>Computational Genomics and Evolution</Description>
		<PIName>Susanne Pfeifer</PIName>
		<Organization>Arizona State University</Organization>
		<Department>School of Life Sciences</Department>
		<FieldOfScience>Life Sciences - Biological and Biomedical</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>26.1399</FieldOfScienceID>
	</Project>
	<Project>
		<ID>330475465</ID>
		<Name>ASU_RCStaff</Name>
		<Description>Group for ASU research computing staff</Description>
		<PIName>Douglas M. Jennewein</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Research Computing</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>11.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>629</ID>
		<Name>ASU_Singharoy</Name>
		<Description>Computational Immunology</Description>
		<PIName>Abhishek Singharoy</PIName>
		<Organization>Arizona State University</Organization>
		<Department>School of Molecular Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>853879314</ID>
		<Name>ASU_Zhuang</Name>
		<Description>Running molecular dynamics simulations based on density functional theory and collect the data of trajectories to training an AI model for larger scale molecular simulations to accelerate discovery of materials.</Description>
		<PIName>Houlong Zhuang</PIName>
		<Organization>Arizona State University</Organization>
		<Department>School for Engineering of Matter, Transport and Energy</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>14.1801b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>385</ID>
		<Name>AdHocComm</Name>
		<Description>We are evaluating heuristic approaches from active learning for communicating partial policy information in ad hoc teamwork scenarios.</Description>
		<PIName>Trevor Santarra</PIName>
		<Organization>University of California, Santa Cruz</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n6cai04882ca</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>340</ID>
		<Name>AfricanSchool</Name>
		<Description>A project for teaching the grid computing component of the African School of Physics.</Description>
		<PIName>Rob Quick</PIName>
		<Organization>Indiana University</Organization>
		<Department>UITS</Department>
		<FieldOfScience>Education</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>76</ID>
		<Name>AlGDock</Name>
		<Description>Binding Potential of Mean Force Calculations with Alchemical Interaction Grids

Standard binding free energies are frequently sought in drug design. According to implicit ligand theory, standard binding free energies can be determined from binding potential of mean force (PMF) calculations from different receptor structures. Binding PMFs are a special type of binding free energy in which the receptor is rigid. The purpose of this project is to develop methods for estimating binding PMFs.</Description>
		<PIName>David Minh</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2050042360</ID>
		<Name>Albany_DAES</Name>
		<Description>Department of Atmospheric and Environmental Sciences at the University of Albany.</Description>
		<PIName>Ryan Torn</PIName>
		<Organization>University of Albany</Organization>
		<Department>Department of Atmospheric Environmental Sciences</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9adt6gcsr8c</InstitutionID>
		<FieldOfScienceID>40.04</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1231382541</ID>
		<Name>AllenISD_Cheon</Name>
		<Description>High school science fair project</Description>
		<PIName>Jimin Cheon</PIName>
		<Organization>Allen Independent School District</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/viwzcsq6tepm</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>309</ID>
		<Name>AmorphousOrder</Name>
		<Description>Glass-forming liquids exhibit dramatical slowdown upon cooling, which may be controlled by the growing amorphous order that emerges due to the rarefaction of metastable states in the rugged free-energy landscape. The amorphous order is well captured by point-to-set correlations, and their measurements are indispensable in testing ideas surrounding this new order parameter. To attain good statistics on point-to-set observables, however, requires a huge number of independent simulations. Exploration of many parameter ranges -- such as temperature or confinement parameters -- further increases the need for parallel computing. The high throughout computing thus provides an ideal tool for investigating the notion of the growing amorphous order in glassy systems.</Description>
		<PIName>Patrick Charbonneau</PIName>
		<Organization>Duke University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>301</ID>
		<Name>AnimalSocialNetworks</Name>
		<Description>Project Name: Animal Social Networks
Short Project Name: AnimalSocialNetworks
Field of Science: Ecology
Field of Science (if Other):
PI Name: Erol Akcay
PI Email: eakcay@sas.upenn.edu
PI Organization: University of Pennsylvania
PI Department: Biology
Join Date: Nov 30th 2015
Sponsor: OSG Connect
OSG Sponsor Contact: Bala
Project Contact: Amiyaal Ilany
Project Contact Email: amiyaal@sas.upenn.edu
Telephone Number:
Project Description: Modeling the formation and dynamics of animal social networks, and how these dynamics affect phenomena at the individual and population levels</Description>
		<PIName>Erol Akcay</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>621</ID>
		<Name>Arcadia_Curotto</Name>
		<Description>Computational chemistry of hydrogen-nanoparticle interactions and n-alkane conformer transitions</Description>
		<PIName>Emanuele Curotto</PIName>
		<Organization>Arcadia University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/c6ehbi2dyh8h</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>501</ID>
		<Name>Argoneut</Name>
		<Description>Project entry corresponding to the Argoneut VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1243866024</ID>
		<Name>Arizona_Chan_Steward</Name>
		<Description>Scalable astronomical data analytics for the Department of Astronomy and Steward Observatory at the University of Arizona</Description>
		<PIName>Chi-kwan Chan</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Department of Astronomy and Steward Observatory</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>918295548</ID>
		<Name>Arizona_Condon</Name>
		<Description>The research focuses on integrating machine learning tools to increase the resolution of hydrological model outputs in hydrologically consistent ways, and on building an emulator to accelerate the solution of hydrologic models while maintaining physical accuracy.</Description>
		<PIName>Laura Condon</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Department of Hydrology and Atmospheric Sciences</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>14.0805</FieldOfScienceID>
	</Project>
	<Project>
		<ID>34400913</ID>
		<Name>Arizona_DataScienceInstitute</Name>
		<Description>Helps researchers and graduate students, to learn Data Science Tools over a wide available computational resources in order to enhance their research capabilities.</Description>
		<PIName>Nirav Merchant</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Data Science Institute</Department>
		<FieldOfScience>Data Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>785</ID>
		<Name>Arizona_Males</Name>
		<Description>Data Analysis for Exoplanet Direct Imaging</Description>
		<PIName>Jared Males</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Department of Astronomy and Steward Observatory</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>648</ID>
		<Name>Arizona_Paschalidis</Name>
		<Description>Systematic Testing of Neutron Star Universal Relations</Description>
		<PIName>Vasileios Paschalidis</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>293707534</ID>
		<Name>Arizona_ResearchTechnologies</Name>
		<Description>Research Computing within Information Technology Services (ITS) at the University of Arizona: University Information Technology Services offers several research computing services co-funded by the Office of Research, Innovation &amp; Impact (RII) and available to all members of the UA campus community. These include high performance computing and storage available at no charge in the Research Data Center and server housing space available in the Research Colocation Data Center. In addition, free software, tools, and consulting are available for research computing, data visualization, and statistics. These services are overseen by the Research Computing Governance Committee.</Description>
		<PIName>Chris Reidy</PIName>
		<Organization>University of Arizona</Organization>
		<Department>ITS</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>11.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1471299275</ID>
		<Name>Arkansas_HPCStaff</Name>
		<Description>To train and develop teaching and research OSG users in Arkansas and to begin contributing to OSG from the forthcoming CC* compute system.  We anticipate that significant users will create their own project</Description>
		<PIName>David Chaffin</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department>University of Arkansas HPCC</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2090385607</ID>
		<Name>Arkansas_Nelson</Name>
		<Description>Statistical analysis on keys generated by a lattice based cryptography algorithm for post-quantum cryptography to determine patterns in the types of errors produced in the keys.</Description>
		<PIName>Alexander Nelson</PIName>
		<Organization>University of Arkansas</Organization>
		<Department>Computer Science &amp; Computer Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/78b3lgmajszi</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>581956816</ID>
		<Name>Arkansas_UITSStaff</Name>
		<Description>Research computing staff at University of Arkansas https://directory.uark.edu/departmental/uits/university-information-technology-serv</Description>
		<PIName>Don DuRousseau</PIName>
		<Organization>University of Arkansas</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/78b3lgmajszi</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>17</ID>
		<Name>AtlasConnect</Name>
		<Description>To support ATLAS Tier 3 flocking into Tier 1 and Tier 2 centers and to support an OSG Connect-like service dedicated to the US ATLAS Collaboration.

The ATLAS detector studies physics at the energy frontier at the Large Hadron Collider in Geneva, Switzerland.</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation and Enrico Fermi Institutes</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>896812233</ID>
		<Name>Auburn_Hauck</Name>
		<Description>Experimental infections with avian reovirus and co-infections with other micro-organisms. We analyze bioinformatic data pertaining to microbiome, gene expression, metagenome and transcriptome obtained from these experiments.</Description>
		<PIName>Ruediger Hauck</PIName>
		<Organization>Auburn University</Organization>
		<Department>Pathobiology</Department>
		<FieldOfScience>Agricultural Sciences specifically Poultry Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q6cff6xb6a0h</InstitutionID>
		<FieldOfScienceID>01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>996902537</ID>
		<Name>BAERI_Bejaoui</Name>
		<Description>Studying the photofragmentation of molecules excited with high energy photons</Description>
		<PIName>Salma Bejaoui</PIName>
		<Organization>Bay Area Environmental Research Institute</Organization>
		<Department>Bay Area Environmental Research Institute</Department>
		<FieldOfScience>Astronomy &amp; Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/za7yf0nds92q</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>981111279</ID>
		<Name>BCBB_NIAID</Name>
		<Description>Group for staff/members of the Bioinformatics and Computational Biosciences Branch (BCBB) at NIAID/NIH.</Description>
		<PIName>Darrell Hurt</PIName>
		<Organization>National Institute of Allergy and Infectious Diseases</Organization>
		<Department>Office of Cyber Infrastructure and Computational Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/451cgt72wj62</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>609</ID>
		<Name>BCH_Holt</Name>
		<Description>Molecular Evolution and Phylogenetics</Description>
		<PIName>Jeffrey Holt</PIName>
		<Organization>Boston Children's Hospital</Organization>
		<Department></Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4lvq3daxyc55</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>559</ID>
		<Name>BCH_ResearchComputing</Name>
		<Description>Facilitation of Boston Children's Hospital Researchers on OSG Connect</Description>
		<PIName>Arash Nemati Hayati</PIName>
		<Organization>Boston Children's Hospital</Organization>
		<Department></Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4lvq3daxyc55</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>830</ID>
		<Name>BC_Grubb</Name>
		<Description>This project studies the implementation of a public policy that restricts gender-based pricing in the Chilean private health insurance system. For that matter, I will estimate how enrollees choose plans and how sensitive they are to prices in this market using a discrete choice demand model. With these estimates in hand, I will simulate how people choose plans once prices are restricted to be the same between men and women, and how the structure of the market, in terms of costs, changes after the implementation of the policy.</Description>
		<PIName>Michael Grubb</PIName>
		<Organization>Boston College</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lpknq8oygi06</InstitutionID>
		<FieldOfScienceID>5.0212</FieldOfScienceID>
	</Project>
	<Project>
		<ID>633</ID>
		<Name>BC_Savage</Name>
		<Description>IT and Research Computing at Boston College</Description>
		<PIName>Brian Savage</PIName>
		<Organization>Boston College</Organization>
		<Department>Information Technology Services</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lpknq8oygi06</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>175</ID>
		<Name>BGAgenomics</Name>
		<Description>This is a cyanobacteria genomics program</Description>
		<PIName>Sucheta Tripathy</PIName>
		<Organization>Indian Institute of Chemical Biology</Organization>
		<Department>Structural Biology and Bioinformatics division</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6ycithqdf09t</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2079648751</ID>
		<Name>BMI_Craven</Name>
		<Description>https://www.biostat.wisc.edu/~craven/</Description>
		<PIName>Mark Craven</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics &amp; Medical Informatics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1104</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1613372267</ID>
		<Name>BMI_Gitter</Name>
		<Description>https://www.biostat.wisc.edu/~gitter/</Description>
		<PIName>Anthony Gitter</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics &amp; Medical Informatics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1104</FieldOfScienceID>
	</Project>
	<Project>
		<ID>842770507</ID>
		<Name>BMI_Hu</Name>
		<Description>https://junjiehu.github.io/</Description>
		<PIName>Junjie Hu</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics &amp; Medical Informatics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2137380985</ID>
		<Name>BMI_Tang</Name>
		<Description>development and application of statistical methods and computational tools for high-dimensional “omics” data, arising from modern high-throughput technologies. </Description>
		<PIName>Zhengzheng Tang</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics &amp; Medical Informatics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1104</FieldOfScienceID>
	</Project>
	<Project>
		<ID>127</ID>
		<Name>BNL-PHENIX</Name>
		<Description>Running HEP/NP Monte Carlo simulations for the collaboration of the PHENIX detector at Relativistic Heavy Ion Collider (RHIC) at BNL.</Description>
		<PIName>Matthew Snowball</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>11</ID>
		<Name>BNLPET</Name>
		<Description>Positron Emission Tomography (PET) at BNL: Develop the efficient and easily parallelizable 3D image reconstruction algorithms for Positron Emission Tomography detectors developed by the BNL PET group. Use OSG XSEDE resources for reconstructing the images obtained by the group while doing a biomedical and biochemistry research. http://www.bnl.gov/pet/ .</Description>
		<PIName>Martin Purschke</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1541289377</ID>
		<Name>BNL_Klimentov</Name>
		<Description>Reference study for building the future EIC project, link: https://www.bnl.gov/eic/</Description>
		<PIName>Alexei Klimentov</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Scientific Computing and Data Facilities</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>11.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>720</ID>
		<Name>BNL_Schenke</Name>
		<Description>High energy nuclear collision simulations for RHIC, LHC, and EIC</Description>
		<PIName>Bjoern Schenke</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>754032593</ID>
		<Name>BNL_Venugopalan</Name>
		<Description>We investigate the dynamics of strongly interacting field theories through a variety of numerical methods,  ranging from classical lattice simulations to tensor network projects.
</Description>
		<PIName>Raju Venugopalan</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>446</ID>
		<Name>BRDMS</Name>
		<Description>This project is about simulation validation of a continuous data binning algorithm.</Description>
		<PIName>XUETONG ZHAI</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Bioengineering</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>825</ID>
		<Name>BU_Mu2e</Name>
		<Description>Mu2e is a muon-to-electron-conversion particle physics experiment at Fermilab</Description>
		<PIName>Jim Miller</PIName>
		<Organization>Boston University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/drujeuinri1g</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>99280644</ID>
		<Name>BYUI_Becerril</Name>
		<Description>Training undergraduate students in scientific computing through teaching elective courses</Description>
		<PIName>Héctor A. Becerril</PIName>
		<Organization>Brigham Young University Idaho</Organization>
		<Department>Chemistry Department</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vgfpbpee9lqo</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1446028604</ID>
		<Name>Bacteriology_Kacar</Name>
		<Description>Our research focuses on reconstructing molecular time machines to explore and attempt to rebuild lost histories. We use tools drawn from synthetic biology, molecular biology and evolutionary biology to tackle challenging questions in life sciences that will allow us to understand life’s fundamental innovations. We hope to reveal underlying molecular mechanisms that are directly and indirectly responsible for maintaining conditions of habitability on our planet’s surface.</Description>
		<PIName>Betul Kacar</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Bacteriology</Department>
		<FieldOfScience>Cellular Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0406</FieldOfScienceID>
	</Project>
	<Project>
		<ID>322</ID>
		<Name>BakerLab</Name>
		<Description>Protein folding</Description>
		<PIName>David Baker</PIName>
		<Organization>University of Washington</Organization>
		<Department>Molecular Engineering and Sciences</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>726</ID>
		<Name>BaylorCM_Hirschi</Name>
		<Description>Running mRNA processing pipeline</Description>
		<PIName>Kendal Hirschi</PIName>
		<Organization>Baylor College of Medicine</Organization>
		<Department>Molecular and Human Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gk0vqx4uormq</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>341031516</ID>
		<Name>Baylor_Shuford</Name>
		<Description>Design and discovery of novel 2-D materials for catalysis, energy storage, and spintronics applications.</Description>
		<PIName>Kevin Shuford</PIName>
		<Organization>Baylor University</Organization>
		<Department>Chemistry and Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/c8uhtb8bojit</InstitutionID>
		<FieldOfScienceID>40.1002</FieldOfScienceID>
	</Project>
	<Project>
		<ID>449</ID>
		<Name>BetaDecay</Name>
		<Description>Neutrinoless Double Beta Decay</Description>
		<PIName>Liang Yang</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>414</ID>
		<Name>BioAlgorithms</Name>
		<Description>Algorithmic development for Bioinformatics</Description>
		<PIName>Natasha Pavlovikj</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>67</ID>
				<Name>HCC</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>167</ID>
		<Name>BioGraph</Name>
		<Description>Constructing gene interaction graphs at high scale</Description>
		<PIName>Alex Feltus</PIName>
		<Organization>Clemson University</Organization>
		<Department>Genetics &amp; Biochemistry</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>103</ID>
		<Name>BioMolMach</Name>
		<Description>The molecular machines associated with biological membranes are particularly remarkable. Membrane-associated proteins play an essential role in controlling the bidirectional flow of material and information, and as such, they are truly devices able to accomplish complex tasks. These include ion channels, transporters, pumps, receptors, kinases, and phosphatases.
These proteins, like any machine, need to change shape and visit many conformational states to perform their function. Our project is aimed at gaining a deep mechanistic perspective of such protein function, linking structure to dynamics, by characterizing the free energy landscape that governs the key functional motions.</Description>
		<PIName>Benoit Roux</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>28</ID>
		<Name>BioStat</Name>
		<Description>Bioinformatics and biostatistics for genetic risk factors at the Duke Medical Center.</Description>
		<PIName>Janice McCarthy</PIName>
		<Organization>Duke University</Organization>
		<Department>Medical Center</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1115649394</ID>
		<Name>BiochemSenes</Name>
		<Description>https://seneslab.biochem.wisc.edu/</Description>
		<PIName>Alessandro Senes</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0299</FieldOfScienceID>
	</Project>
	<Project>
		<ID>84730384</ID>
		<Name>Biochemistry_Romero</Name>
		<Description>https://biochem.wisc.edu/people/romero/</Description>
		<PIName>Philip Romero</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0299</FieldOfScienceID>
	</Project>
	<Project>
		<ID>432</ID>
		<Name>Bioconductor</Name>
		<Description>Bioconductor provides tools for the analysis and comprehension of high-throughput genomic data.</Description>
		<PIName>Martin Morgan</PIName>
		<Organization>Roswell Park Cancer Institute</Organization>
		<Department>Biostatistics and Bioinformatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gse6n0vl8u5c</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>461</ID>
		<Name>BiomedInfo</Name>
		<Description>Development and application of software tools for performing large-scale biomedical informatics on microbial genome sequence data.</Description>
		<PIName>Erik Wright</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Bioinformatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>428</ID>
		<Name>Biomim</Name>
		<Description>The project involves studies of substrate binding, electron and proton transport pathways and substrate release in enzymes that can catalyze the synthesis of fuels in photoelectrochemical cells. The insights obtained will guide the design of small molecule electrocatalysts in collaboration with experimentalists.</Description>
		<PIName>Puja Goyal</PIName>
		<Organization>State University of New York at Binghamton</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/53bzboawpaq9</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>532</ID>
		<Name>BiostatsChapple</Name>
		<Description>Bayesian Clinical Trials</Description>
		<PIName>Andrew Chapple</PIName>
		<Organization>LSU School of Public Health</Organization>
		<Department>Biostatistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/9idmt4uz33c1</InstitutionID>
		<FieldOfScienceID>27.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>930667780</ID>
		<Name>Bishops_Zhao</Name>
		<Description>Analyzing the higher order Cauchy numbers, computing variant multiple zeta values, and finding the largest circles enclosing exactly n lattice points.</Description>
		<PIName>Jay (Jianqiang) Zhao</PIName>
		<Organization>The Bishop's School</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/u4p40su7wleo</InstitutionID>
		<FieldOfScienceID>27.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1635310641</ID>
		<Name>BrighamAndWomens_Baratono</Name>
		<Description>Studying how atrophy and connectivity to atrophy impacts cognitive and psychological outcomes in patients with a variety of neurodegenerative disorders</Description>
		<PIName>Sheena R Baratono</PIName>
		<Organization>Brigham and Women's Hospital</Organization>
		<Department>Neurology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/amkjjwp5fsro</InstitutionID>
		<FieldOfScienceID>26.1504</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1962465368</ID>
		<Name>BrynMawr_Chu</Name>
		<Description>n my group, we study complex social and biological systems. We primarily use tools from stochastic processes and differential equations and employ analytical and computational techniques that are often complemented by real-world data. Here is a link to my webpage: https://www.brynmawr.edu/inside/people/olivia-j-chu</Description>
		<PIName>Olivia Chu</PIName>
		<Organization>Bryn Mawr College</Organization>
		<Department>Department of Mathematics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wrdwsan7bxsn</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2082449379</ID>
		<Name>BrynMawr_Pivirotto</Name>
		<Description>In my role as a data science instructional support coordinator, I design and lead workshops, develop hands-on tutorials, and offer office hours for faculty, staff, and students engaged in computational and data intensive work. I support skill-building across a range of tools and languages - such as Python, R, Git, and Jupyter - and help users navigate research workflows involving data analysis, visualization, and reproducibility. I also consult on project planning, infrastructure needs, and integrating ethical and equitable practices into data-driven research.</Description>
		<PIName>Alyssa Pivirotto</PIName>
		<Organization>Bryn Mawr College</Organization>
		<Department>Library and Information Technology Services (LITS)</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wrdwsan7bxsn</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>695</ID>
		<Name>Bucknell_IT</Name>
		<Description>Group for Bucknell Research IT staff to test-drive OSG job submissions</Description>
		<PIName>Jeremy Dreese</PIName>
		<Organization>Bucknell University</Organization>
		<Department>Engineering</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wmnibk6189rx</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1500090048</ID>
		<Name>CAIDA_Mok</Name>
		<Description>The project is about building a tutorial to facilitate CAIDA's data consumers to analyze traffic data collected by UCSD Network Telescope hosted on the OSDF. This project is a part of our NSF project (https://www.caida.org/funding/cici-canis)</Description>
		<PIName>Ricky Mok</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>CAIDA</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.1003</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1291608831</ID>
		<Name>CEE_Wright</Name>
		<Description>Our research team works in a number of research areas with the field of computational hydrometeorology and hydroclimatology:
* Measurement, modeling, and analysis of extreme rainfall at high resolution using a variety of sources including rain gages, ground-based weather radar, satellite-based sensors, and numerical weather and climate models.
* Understanding the roles of rainfall and land surface process variability and interactions to produce floods at a wide range of scales using high-resolution multi-scale supercomputer-based watershed models.
* Interfacing with meteorologists and climate scientists to translate projected changes in extreme precipitation from regional and global climate models into projections of future risks.
* Developing practical tools for improved probabilistic rainfall and flood hazard and risk estimation.</Description>
		<PIName>Daniel Wright</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0605</FieldOfScienceID>
	</Project>
	<Project>
		<ID>299</ID>
		<Name>CGS</Name>
		<Description>Project Name: grian growth simulation 
Short Project Name: GGS 
Field of Science: Materials Science 
Field of Science (if Other): 
PI Name: Panthea Sepehrband 
PI Email: psepehrband@scu.edu  
PI Organization: Santa Clara Univeristy 
PI Department: Mechanical Engineering 
Join Date: 
Sponsor: 
OSG Sponsor Contact: 
Project Contact: Panthea Sepehrband 
Project Contact Email: psepehrband@scu.edu 
Telephone Number: 4088338665 
Project Description: Simulation of grain growth using the LAMMPS package.</Description>
		<PIName>Panthea Sepehrband</PIName>
		<Organization>Santa Clara University</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2vxlc7g64qpj</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>758</ID>
		<Name>CHTC-Staff</Name>
		<Description>Group for CHTC staff who have OSG accounts</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations>
			<ResourceAllocation>
				<Type>Other</Type>
				<SubmitResources>
					<SubmitResource>CHTC-ITB-submittest0000</SubmitResource>
				</SubmitResources>
				<ExecuteResourceGroups>
					<ExecuteResourceGroup>
						<GroupName>CHTC-ITB</GroupName>
						<LocalAllocationID>glow</LocalAllocationID>
					</ExecuteResourceGroup>
				</ExecuteResourceGroups>
			</ResourceAllocation>
			<ResourceAllocation>
				<Type>XRAC</Type>
				<SubmitResources>
					<SubmitResource>CHTC-XD-SUBMIT</SubmitResource>
					<SubmitResource>UChicago_OSGConnect_login04</SubmitResource>
					<SubmitResource>UChicago_OSGConnect_login05</SubmitResource>
				</SubmitResources>
				<ExecuteResourceGroups>
					<ExecuteResourceGroup>
						<GroupName>TACC-Stampede2</GroupName>
						<LocalAllocationID>TG-DDM160003</LocalAllocationID>
					</ExecuteResourceGroup>
				</ExecuteResourceGroups>
			</ResourceAllocation>
		</ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>157033406</ID>
		<Name>CHTC</Name>
		<Description>http://chtc.cs.wisc.edu/</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>CHTC</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>158</ID>
		<Name>CHomP</Name>
		<Description>Our group studies dynamical systems using methods from computational topology. A current focus is the study of gene regulatory networks via switching system models and the computation of Conley-Morse databases.</Description>
		<PIName>Konstantin Mischaikow</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>582</ID>
		<Name>CLAS12</Name>
		<Description>Jefferson Laboratory Hall-B CLAS12 project</Description>
		<PIName>Maurizio Ungaro</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>388815060</ID>
		<Name>CMB_Petravick</Name>
		<Description>The CMB-S4 project is prototyping processing and data flow on the FABRIC testbed https://portal.fabric-testbed.net/.  We are studying the use of HTCondor on FABRIC VM nodes in scenarios where data would arrive over high speed networks.</Description>
		<PIName>Donald Petravick</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>National Center for Supercomputing Applications (NCSA)</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2089895362</ID>
		<Name>CMU_Isayev</Name>
		<Description>Quantum chemical and machine learning insights into supra-molecular organization of molecular crystals.</Description>
		<PIName>Olexandr Isayev</PIName>
		<Organization>Carnegie-Mellon University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3cqqrc2cgibl</InstitutionID>
		<FieldOfScienceID>40.0511</FieldOfScienceID>
	</Project>
	<Project>
		<ID>818249353</ID>
		<Name>CMU_Romagnoli</Name>
		<Description>Deep Reinforcement Learning (RL) for Secure Control of UAVs via Software Rejuvenation</Description>
		<PIName>Raffaele Romagnoli</PIName>
		<Organization>Carnegie-Mellon University</Organization>
		<Department>Electrical and computer engineering</Department>
		<FieldOfScience>Electrical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3cqqrc2cgibl</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1747622594</ID>
		<Name>CMU_Spotte-Smith</Name>
		<Description>My research (https://CoReACTER.org) broadly involves computational and data science studies of complex reactive systems. In the short-term, I intend to use the OSPool to generate training data for machine learned interatomic potentials (specifically, performing high-throughput DFT calculations of materials interfaces) and to perform high-throughput molecular dynamics simulations of solid-state reactivity. These efforts relate to a current project funded by Toyota Research Institute through their Synthesis Advanced Research Challenge.</Description>
		<PIName>Evan Spotte-Smith</PIName>
		<Organization>Carnegie Mellon University</Organization>
		<Department>Department of Chemical Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3cqqrc2cgibl</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>488553531</ID>
		<Name>CMU_Viswanathan</Name>
		<Description>Physics-informed machine learning algorithms to facilitate improved prediction of battery performance</Description>
		<PIName>Venkat Viswanathan</PIName>
		<Organization>Carnegie-Mellon University</Organization>
		<Department>Department of Mechanical Engineering</Department>
		<FieldOfScience>Mechanical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3cqqrc2cgibl</InstitutionID>
		<FieldOfScienceID>14.19</FieldOfScienceID>
	</Project>
	<Project>
		<ID>930981374</ID>
		<Name>CNU_Henry</Name>
		<Description>Research related to biomedical and clinical natural language processing, including information retrieval,  information extraction, summarization, and question answering.
</Description>
		<PIName>Samuel Henry</PIName>
		<Organization>Christopher Newport University</Organization>
		<Department>Department of Physics, Computer Science, and Engineering</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/a1hm0ndtf1zj</InstitutionID>
		<FieldOfScienceID>30.7099b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>661</ID>
		<Name>COVID19_FoldingAtHome</Name>
		<Description>Folding at Home for COVID-19, on the Open Science Grid https://foldingathome.org/covid19/</Description>
		<PIName>Greg Bowman</PIName>
		<Organization>Folding@Home Consortium (FAHC)</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>687</ID>
		<Name>COVID19_Harvard_Bitran</Name>
		<Description>Designing Inhibitors of SARS-CoV 2 Spike Protein Folding
The receptor binding domain (RBD) of the SARS-CoV 2 Spike (S) protein plays a crucial role in enabling the virus to enter host cells, and represents a promising target for antiviral drugs. A common therapeutic strategy involves deploying small molecules to inhibit the protein-protein interaction (PPI) between the RBD and the human angiotensin-converting enzyme 2 (ACE2) to which it binds. But unfortunately, it is difficult to inhibit such PPIs using small molecules due to the large interaction surface area involved. To overcome this difficulty, we propose to develop a novel antiviral strategy whereby small molecules will be used to specifically bind and stabilize intermediates in the RBD folding pathway, thus inhibiting the domain’s folding and promoting the S protein’s degradation. Using folding simulations, we plan to map the RBD’s folding pathway in atomistic detail and identify long-lived intermediates with well-defined binding pockets. We will then identify existing, as well as newly-designed small molecules that bind these cavities with high affinity, but do not bind the native state. The resulting hits will then be experimentally screened for their ability to inhibit RBD folding and their antiviral activity. If successful, this approach will yield a novel therapeutic strategy against SARS-CoV 2 that overcomes difficulties associated with most RBD inhibitors. Furthermore, we expect it will be difficult for SARS-CoV 2 to acquire resistance to these folding inhibitors, owing to severe fitness costs associated with mutating residues that are surface-exposed in folding intermediates.</Description>
		<PIName>Amir Bitran</PIName>
		<Organization>Harvard University</Organization>
		<Department>Chemistry and Chemical Biology</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>659</ID>
		<Name>COVID19_Illinois_Gammie</Name>
		<Description>The goal of this project is to predict and assess the effect of epidemic intervention strategies for the State of Illinois. Our effort includes a group of covid-19 modelers at the University of Illinois at Urbana-Champaign that includes faculty members Charles Gammie, Nigel Goldenfeld, and Sergei Maslin and graduate students George Wong and Zach Weiner. We are one of the groups providing advice to the office of Governor Pritzker and to our local public health district.</Description>
		<PIName>Charles Gammie</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>743</ID>
		<Name>COVID19_JHU_Howard</Name>
		<Description>One of the biggest challenges facing the US healthcare system in caring for patients with COVID-19 is the limited number of ICU beds and ventilators available, in addition to concerns regarding staffing levels. Hospital cooperation can allow for patient transfers increasing the efficiency of the overall system and the number of patients who can receive treatment. We use data from COVID-19 in Maryland to formulate a mathematical model which can determine which hospitals are the best candidates for the patient transfer, accounting for the current and expected resource usage in all hospitals. The advantages of the mathematical model are demonstrated with simulation of the spread of COVID-19 in Maryland.</Description>
		<PIName>James P. Howard, II</PIName>
		<Organization>Johns Hopkins University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3fml5tx2uhe0</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>671</ID>
		<Name>COVID19_LSUHSC_Chapple</Name>
		<Description>Most Bayesian methods require Markov Chain Monte Carlo sampling (MCMC) to obtain posterior distributions, which can be used  for statistical inference - and decision making during adaptive clinical trial designs. To justify any novel statistical method or adaptive design, extensive simulation studies must be conducted to demonstrate their effectiveness. Dr. Chapple recently used OSG to successfully revise a novel statistical method for survival analysis relevant to COVID-19. Such simulations, particularly for Bayesian adaptive clinical trials, can take a tremendous amount of time to run 1,000 or more simulations for a given scenario, and usually hundreds of scenarios are warranted to convince others of the trial’s benefit. Dr. Chapple has used 435 thousand core hours to develop clinical trial designs for testing safety of new agents in pediatric brain tumors, testing multiple COVID-19 therapies simultaneously, and determining optimal treatments based on patient subgroups. Without OSG, it would not have been possible to start enrolling patients in a 3-treatment armed COVID-19 trial at University Medical Center in New Orleans, LA. Based upon that success, Chapple will also demonstrate the same approach for 5 treatment arms, and also for subgroups (based on comorbidities, age, etc), and publish the trial design in a statistical journal.</Description>
		<PIName>Andrew Chapple</PIName>
		<Organization>LSU School of Public Health</Organization>
		<Department>Biostatistics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/9idmt4uz33c1</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>677</ID>
		<Name>COVID19_RepertoireTCell</Name>
		<Description>Predicting Long-Term T Cell Responses to SARS-CoV-2 via Molecular Modeling and Machine Learning https://covid19-hpc-consortium.org/projects/5ebf07523e6ec40081202fac
The dynamics of COVID-19 infection remain poorly understood, and it is unknown whether patients acquire prolonged immunity to the virus following initial infection. Most current vaccine efforts mainly promote B cell production of neutralizing antibodies. While often critical for virus neutralization and disease control, research from the 2002-2003 SARS-CoV epidemic suggests that B cells and serum antibodies involved in the initial immune response are likely to be short-lived. However, many patients with undetectable antibody levels retained immune protection by virtue of long-lived T cells, and correlation of T cell recovery with convalescence in COVID-19 strongly suggests that T cells are critical for virus control. By computationally simulating hundreds of thousands of interactions between T cells and COVID-19-infected cells, we aim to characterize the biochemical features of T cells responsible for long-term COVID-19 immunity and identify a small number of viral molecules that have the highest likelihood of inducing long-term immunity when delivered through vaccines.</Description>
		<PIName>Michael Noble</PIName>
		<Organization>Repertoire Immune Medicines</Organization>
		<Department>Computational Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e9m0sui7r154</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>660</ID>
		<Name>COVID19_Stanford_Das</Name>
		<Description>RNA tertiary structure of COVID-19 UTRs as therapeutic and vaccine targets: https://daslab.stanford.edu/news</Description>
		<PIName>Rhiju Das</PIName>
		<Organization>Stanford University</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>669</ID>
		<Name>COVID19_UCSD_Hsiao</Name>
		<Description>Develop AI algorithm to diagnose CT scans of pneumonia patients for COVID-19: https://www.kpbs.org/news/2020/apr/07/ucsd-using-ai-identify-pneumonia-coronavirus/</Description>
		<PIName>Albert Hsiao</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Radiology</Department>
		<FieldOfScience>Radiological Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>662</ID>
		<Name>COVID19_UNL_Weitzel</Name>
		<Description>Testing of Folding at Home on the Open Science Grid, for COVID-19; https://foldingathome.org/covid19/</Description>
		<PIName>Derek Weitzel</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Computer Science and Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>660</ID>
		<Name>COVID19_WeNMR</Name>
		<Description>COVID-19 research through the WeNMR portal, HADDOCK (https://www.eosc-hub.eu/news/haddock-support-covid-19-research)
WeNMR is a Virtual Research Community supported by EGI. WeNMR aims at bringing together complementary research teams in the structural biology and life science area into a virtual research community at a worldwide level and provide them with a platform integrating and streamlining the computational approaches necessary for data analysis and modelling.</Description>
		<PIName>Alexandre Bonvin</PIName>
		<Organization>Utrecht University</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>73</ID>
				<Name>ENMR</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e333zusaa3hr</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>650362098</ID>
		<Name>CPSC_5520</Name>
		<Description>Teaching a distributed systems course. Assignments will be at-scale applications including  a parallel video rendering pipeline, a genome analysis application, and a text analysis workflow
</Description>
		<PIName>Nate Kremer-Herman</PIName>
		<Organization>Seattle University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nn54csg34gty</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1321266094</ID>
		<Name>CSM_BeEST</Name>
		<Description>The Beryllium Electron capture in Superconducting Tunnel junctions Experiment (BEeST) employs the decay–momentum reconstruction technique to precisely measure the 7Be 7Li recoil energy spectrum in superconducting tunnel junctions (STJs). This approach is a powerful, model-independent method in the search for beyond SM scenarios since it relies only on the existence of a heavy neutrino admixture to the active neutrinos.</Description>
		<PIName>Kyle Leach</PIName>
		<Organization>Colorado School of Mines</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2gwyao3kqhpn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>841996560</ID>
		<Name>CSUN_Jiang</Name>
		<Description>Wildfire Prediction for California using various remote sensing data from the past decades.  This is a computation intensive research project that involves applying machine learning models for data analysis and prediction,  and also computation-intensive work for data visualization.  This project will involve collaborations from both internal and external students at California State University, Northridge.
</Description>
		<PIName>Xunfei Jiang</PIName>
		<Organization>California State University, Northridge</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vfjpi4twqspj</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>863451074</ID>
		<Name>CSUN_Katz</Name>
		<Description>Large scale searches for binary sequences with identical autocorrelation spectra (https://arxiv.org/abs/2308.07467).</Description>
		<PIName>Daniel Katz</PIName>
		<Organization>California State University, Northridge</Organization>
		<Department>Department of Mathematics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vfjpi4twqspj</InstitutionID>
		<FieldOfScienceID>27.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>799</ID>
		<Name>CSUSB_ITS</Name>
		<Description>Group for CSUSB staff supporting research computing.</Description>
		<PIName>Dung Vu</PIName>
		<Organization>California State University, San Bernadino</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wra3vmvyvmgd</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>649388595</ID>
		<Name>CSUSM_Bader</Name>
		<Description>Monolayer krypton desorption from graphite shows anomalously strong mass dependence relative to Graham’s law. We will determine whether coverage-dependent structure, substrate vibrational coupling, or protocol artifacts drive this anomaly, and deliver reliable isotope-selective desorption rates for 1–6 layers.</Description>
		<PIName>Karson Bader</PIName>
		<Organization>California State University, San Marcos</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/moudsuun5z21</InstitutionID>
		<FieldOfScienceID>40.0802</FieldOfScienceID>
	</Project>
	<Project>
		<ID>934335439</ID>
		<Name>CSU_Buchanan</Name>
		<Description>Modeling of magnetorheological elastomers</Description>
		<PIName>Kristen Buchanan</PIName>
		<Organization>Colorado State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2aj5pa9etoc7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1091405696</ID>
		<Name>CSU_Vogeler</Name>
		<Description>Distributed geospatial data access and processing</Description>
		<PIName>Jody Vogeler</PIName>
		<Organization>Colorado State University</Organization>
		<Department>Natural Resource Ecology Lab</Department>
		<FieldOfScience>Ecological and Environmental Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2aj5pa9etoc7</InstitutionID>
		<FieldOfScienceID>03.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>514238635</ID>
		<Name>CS_752</Name>
		<Description>This project name (originally used for a course) was used in the OSPool for research related to neuromorphic computing, speech processing, and sound source localization.</Description>
		<PIName>Joshua San Miguel</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1237441548</ID>
		<Name>CS_Albargouthi</Name>
		<Description>program synthesis and verification.</Description>
		<PIName>Aws Albarghouthi</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1602433314</ID>
		<Name>CS_Gupta</Name>
		<Description>The goal of WISION Lab is to develop the next generation of computer vision systems. Our research is in two main areas: Designing novel computational cameras, and developing physics- and learning-based algorithms for scene interpretation. Our work is motivated by applications in robotics, consumer and scientific imaging, and human-computer interfaces.</Description>
		<PIName>Mohit Gupta</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>768792430</ID>
		<Name>CUAnschutz_Graber</Name>
		<Description>We build, validate, and implement predictive models of patient recovery after orthopedic surgery. These models support clinicians’ ability to provide personalized care and communicate effectively with their patients.</Description>
		<PIName>Jeremy Graber</PIName>
		<Organization>University of Colorado Anschutz Medical Campus</Organization>
		<Department>Department of Physical Medicine and Rehabilitation</Department>
		<FieldOfScience>Physical Therapy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ca3jfb3f8sv3</InstitutionID>
		<FieldOfScienceID>51.2314</FieldOfScienceID>
	</Project>
	<Project>
		<ID>597</ID>
		<Name>CUAnschutz_JuarezColunga</Name>
		<Description>Comparison of Random Survival Forests and Joint Modelling for a Time to Event Outcome: a Simulation Study.</Description>
		<PIName>Elizabeth Juarez Colunga</PIName>
		<Organization>University of Colorado Anschutz Medical Campus</Organization>
		<Department>Biostatistics and Informatics</Department>
		<FieldOfScience>Biostatistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ca3jfb3f8sv3</InstitutionID>
		<FieldOfScienceID>26.1102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>757</ID>
		<Name>CUBoulder_Aydin</Name>
		<Description>Protein design algorithms</Description>
		<PIName>Halil Aydin</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>962135962</ID>
		<Name>CUBoulder_Garcia</Name>
		<Description>Fine tuning an OCR engine. Using the fine-tuned engine to get textual data from scanned documents. Also applying text mining models on the extracted text.</Description>
		<PIName>Diego Garcia</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Department of Finance at Leeds School of Business</Department>
		<FieldOfScience>Finance</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>52.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>470073760</ID>
		<Name>CUBoulder_Ladenburger</Name>
		<Description>Use quantitative economic models to study effect of exogenous shocks on the macroeconomy</Description>
		<PIName>Lucas Ladenburger</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>45.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>490116286</ID>
		<Name>CUBoulder_Piper</Name>
		<Description>My role is to expose the community of scientists at CSDMS (https://csdms.colorado.edu) to high-throughput computing. I plan to make a series of demonstration cases, run them through OSG, and write up my experiences to highlight how HTC could be useful for research in this community.</Description>
		<PIName>Mark Piper</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>INSTAAR</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>40.0601b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>719</ID>
		<Name>CUNYBrooklyn_Juszczak</Name>
		<Description>Mapping molecular level electron density in cation-aromatic pi electron interactions</Description>
		<PIName>Laura Juszczak</PIName>
		<Organization>CUNY Brooklyn College</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lbg0jt5w2rks</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1055025797</ID>
		<Name>CUNY_Markus</Name>
		<Description>This is a simulation study that is comparing 7 different models for ordinal longitudinal data with cross-classified data structure.</Description>
		<PIName>Keith Markus</PIName>
		<Organization>The Graduate Center, CUNY</Organization>
		<Department>College of Criminal Justice and Graduate Center</Department>
		<FieldOfScience>Educational Psychology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o336cz96qrh4</InstitutionID>
		<FieldOfScienceID>42.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>114339703</ID>
		<Name>Caltech_2024_Reitze</Name>
		<Description>The mission of the U.S. National Science Foundation Laser Interferometer Gravitational-wave Observatory is to open the field of gravitational-wave astrophysics through the direct detection of gravitational waves. LIGO is a national facility for gravitational-wave research, providing opportunities for the broader scientific community to participate in detector development, observations and data analysis. LIGO detectors are available for use by members of the LIGO Scientific Collaboration (LSC), comprising researchers in partner institutions around the world.</Description>
		<PIName>David Reitze</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>The Division of Physics, Mathematics and Astronomy</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1482864894</ID>
		<Name>Caltech_Alicea</Name>
		<Description>The project explores state-of-the-art Hartree-Fock simulations of interacting graphene multilayers.  Simulation work is part of a joint theory/experiment effort done in collaboration with Stevan Nadj-Perge’s group at Caltech and aims to explain their spectroscopy measurements.</Description>
		<PIName>Jason Alicea</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>222780249</ID>
		<Name>Caltech_Bouma</Name>
		<Description>Exoplanet and stellar astrophysics research</Description>
		<PIName>Luke Bouma</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>Division of Physics, Mathematics and Astronomy</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>847</ID>
		<Name>Caltech_Chary</Name>
		<Description>Joint Survey Processing (JSP) is aimed at enabling science that requires pixel-level combination of data from the Vera C. Rubin Observatory, The Euclid Space Telescope, and the Nancy Grace Roman Space Telescope.</Description>
		<PIName>Ranga-Ram Chary</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>IPAC</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>136891900</ID>
		<Name>Caltech_Drummond</Name>
		<Description>This project is the computation of gravitational wave fluxes from a binary black hole system with an extreme mass ratio, which will be key sources for future gravitational-wave space detector LISA. In particular, the focus is calculating the contribution of the spin of the smaller black hole to the gravitational waveform.</Description>
		<PIName>Lisa Drummond</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>Division of Physics, Math and Astronomy</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>478994236</ID>
		<Name>Caltech_Kanner</Name>
		<Description>I am interested in learning to use OSG resources for LIGO data analysis. I am especially interested in parameter estimation jobs using bilby or BayesWave. See https://gwosc.org for more information.</Description>
		<PIName>Jonah Kanner</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>LIGO Laboratory</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>598100763</ID>
		<Name>Caltech_Morrell</Name>
		<Description>Access to OSDF data resources</Description>
		<PIName>Tom Morrell</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>Library</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>639</ID>
		<Name>Caltech_Rusholme</Name>
		<Description>Joint Survey Processing (JSP) - Pixel-level combination of data from LSST, Euclid, and WFIRST</Description>
		<PIName>Benjamin Rusholme</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>IPAC</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1486113095</ID>
		<Name>Caltech_Vallisneri</Name>
		<Description>The NANOGrav collaboration is a cross-university, cross-discipline collection of astrophysicists,  data analysts, and engineers who are currently working to detect a gravitational wave background  via Pulsar Timing Arrays (PTAs).  Our group's current projects are related to cross-validation and  posterior predictive checking methods for parameter estimation and detection analyses for Bayesian  PTA studies. Another project is related to increasing computational efficiency of PTA analyses by  developing likelihood reweighting methods for PTAs. More information on NANOGrav can be  found here:  http://nanograv.org/
</Description>
		<PIName>Michele Vallisneri</PIName>
		<Organization>California Institute of Technology</Organization>
		<Department>California Institute of Technology</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>759</ID>
		<Name>CampusWorkshop_Feb2021</Name>
		<Description>accounts for Feb 8 2021 campus workshop</Description>
		<PIName>Christina Koch</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>809</ID>
		<Name>Canisius_Wood</Name>
		<Description>My research is to study the proton hadronization by mining the CLAS6 data from Jefferson Lab.</Description>
		<PIName>Michael Wood</PIName>
		<Organization>Canisius College</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gq4rco2wmxx8</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>617</ID>
		<Name>CaseWestern_Tolbert</Name>
		<Description>Structural Biology Related to HIV/EV-71</Description>
		<PIName>Blanton Tolbert</PIName>
		<Organization>Case Western Reserve University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Structural Biology/Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7kqlt19a4h39</InstitutionID>
		<FieldOfScienceID>26.0207</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1480334498</ID>
		<Name>CaseWestern_Zhang</Name>
		<Description>A project involving neuroimaging and genetics data for neurodegenerative disease.</Description>
		<PIName>Lijun Zhang</PIName>
		<Organization>Case Western Reserve University</Organization>
		<Department>Dept. of Population &amp; Quantitative Health Sciences (PQHS)</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7kqlt19a4h39</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>536</ID>
		<Name>CatalystDesign</Name>
		<Description>Catalyst design project with a heterogenous catalyst, looking for stable structures</Description>
		<PIName>Dequan Xiao</PIName>
		<Organization>University of New Haven</Organization>
		<Department>Chemistry and Chemical Engineering</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7b1hagvpg2j1</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>515</ID>
		<Name>CatalystHTVS</Name>
		<Description>Using high throughput computing to screen molecular catalysts for energy fuel conversion based on experimental database or in-silico generated structures. In the next stage, the output from HTC calculations will be used to train machine learning models to allow faster and higher throughput molecular catalyst design.</Description>
		<PIName>Heather J. Kulik</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Chemical Engineering</Department>
		<FieldOfScience>Physical Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>479</ID>
		<Name>Cdms</Name>
		<Description>CDMS Experiment Cryogenic Dark Matter Search</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>CDMS</Organization>
		<Department>CDMS</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1842147504</ID>
		<Name>CedarsSinai_Meyer</Name>
		<Description>The Platform for Single-Cell Science is a tool for improving both the reproducibility and accessibility of analytical  pipelines developed for single-cell multiomics. Researchers will be able to upload their data, create an analysis pipeline using our javascript designer, and link their results to a publication. The raw data, analysis, and results will be made  available for interactive exploration or download when users are ready to publish. We are hoping to understand if there  is a way we can use OSG by sending jobs that are prepared on our website hosted on AWS to the OSG for execution.
</Description>
		<PIName>Jesse Meyer</PIName>
		<Organization>Cedars-Sinai Medical Center</Organization>
		<Department>Computational Biomedicine</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/cbf46cc12bz3</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>112</ID>
		<Name>CentaurSim</Name>
		<Description>Centaurs are icy objects in the outer solar system whose orbits cross those of the giant planets. It is thought that most Centaurs originate from the solar system's Kuiper Belt, a reservoir of icy bodies orbiting just beyond Neptune. However, a few Centaurs with very large orbital inclinations and/or mean orbital distances cannot be well-explained with a Kuiper Belt origin. Alternatively, it has been proposed that these outlier Cenaturs may come from the Oort Cloud, a spherical halo of icy objects that extends over halfway to the nearest star. In this project we will simulate the production of Centaurs from the Oort Cloud using numerical orbital integrations. Following this, we will run our simulated orbits/objects through a sky survey simulator to compare our simulated "detections" with the real sample of known objects. Thus, we will be able to evaluate whether the Oort Cloud is a potential source of Centaurs with extreme orbits.</Description>
		<PIName>Nathan Kaib</PIName>
		<Organization>Northwestern University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/5vvknn2bzgvt</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1840388199</ID>
		<Name>Chapman_Atamian</Name>
		<Description>This project aims to identify naturally derived molecules with the potential to inhibit VP37, a key orthopoxvirus protein targeted by the antiviral drug Tecovirimat. Using GROMACS for molecular dynamics simulations and AutoDock Vina for molecular docking, we will screen candidates from the COCONUT natural product database. ACCESS resources will be used to support MD simulations, and molecular docking.</Description>
		<PIName>Hagop Atamian</PIName>
		<Organization>Chapman University</Organization>
		<Department>Biological Sciences, Schmid College of Science and Technology</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wds3k660gq8j</InstitutionID>
		<FieldOfScienceID>26.0210</FieldOfScienceID>
	</Project>
	<Project>
		<ID>472850316</ID>
		<Name>Charlotte_Fodor</Name>
		<Description>Dr. Anthony A. Fodor is currently a Principal Investigator of a research lab that oversees various microbiome studies that investigates the correlation between the ecology of various microbial environments and human health.  Additionally, Dr. Fodor leads his lab members in the development of reproducible bioinformatics pipelines for processing and performing statistical analysis on sequencing data extracted from microorganisms.  Finally, Dr. Fodor is a project lead for a NSF funded precision microbiome engineering research center (https://fodorlab.charlotte.edu/directory/anthony-fodor-0 / https://premier-microbiome.org/data-analytics/).</Description>
		<PIName>Anthony Fodor</PIName>
		<Organization>University of North Carolina at Charlotte</Organization>
		<Department>Department of Bioinformatics and Genomics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zehhuc2wlzf7</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1179657501</ID>
		<Name>Charlotte_URC</Name>
		<Description>University Research Computing provides high-performance computing and analytics capabilities to support the research and teaching missions at UNC Charlotte.</Description>
		<PIName>Matthew West</PIName>
		<Organization>University of North Carolina at Charlotte</Organization>
		<Department>University Research Computing</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zehhuc2wlzf7</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1199789983</ID>
		<Name>ChemistrySchmidt</Name>
		<Description>http://schmidt.chem.wisc.edu/</Description>
		<PIName>JR Schmidt</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.1002</FieldOfScienceID>
	</Project>
	<Project>
		<ID>198423264</ID>
		<Name>Chemistry_Huang</Name>
		<Description>The main goal of our lab is to understand and manipulate biomolecular dynamics by developing and applying novel statistical mechanics based methods that can bridge the gap between experiments and simulations. (https://huang.chem.wisc.edu/)</Description>
		<PIName>Xuhui Huang</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0511b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1288078271</ID>
		<Name>Chemistry_Yang</Name>
		<Description>We are a theoretical and computational group specializing in electronic structure theory and dynamics theory.
https://yang.chem.wisc.edu/</Description>
		<PIName>Yang Yang</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0511</FieldOfScienceID>
	</Project>
	<Project>
		<ID>172210169</ID>
		<Name>Chtc-Visitors</Name>
		<Description>Temporary accounts for external users at CHTC.</Description>
		<PIName>Aaron Moate</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1507874337</ID>
		<Name>Cincinnati_Combs</Name>
		<Description>Facilitating research computing efforts campus-wide</Description>
		<PIName>Jane Combs</PIName>
		<Organization>University of Cincinnati</Organization>
		<Department>Advanced Research Computing</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/52f5piuly2gg</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>824</ID>
		<Name>Cincinnati_RCD</Name>
		<Description>Research Technologies staff at the University of Cincinnati</Description>
		<PIName>Jane Combs</PIName>
		<Organization>University of Cincinnati</Organization>
		<Department>Advanced Research Computing Center</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/52f5piuly2gg</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1672967698</ID>
		<Name>Clarkson_Roulston</Name>
		<Description>This project uses the stellar evolution code MESA (Modules for Experiments in Stellar Astrophysics) to model stars undergoing varying amounts of mass accretion across a range of initial masses. By evolving large grids of one-dimensional stellar models with detailed microphysics, I examine how accretion alters internal structure, chemical composition profiles, and long-term evolutionary outcomes. The results help constrain how mass transfer histories shape observable stellar properties and the formation of compact remnants. See https://benjaminroulston.com/research</Description>
		<PIName>Benjamin Roulston</PIName>
		<Organization>Clarkson University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o2qtl8pbjmss</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>87594965</ID>
		<Name>Clarkson_Scrimgeour</Name>
		<Description>This research project aims to model the synthesis of hyaluronan by its synthase during both normal membrane-based processive synthesis and during in vitro non-processive reactions. Simulations built from kinetic models of the hyaluronan synthesis processes will predict product molecular weight distributions and enable structure predictions for the glycocalyx on living cells using numerical self consistent field theory. Structure predictions will be compared to experimental results for brush densities and microparticle penetration based on high resolution single particle tracking data. (Institutional Website: https://www.clarkson.edu/people/jan-scrimgeour)</Description>
		<PIName>Jan Scrimgeour</PIName>
		<Organization>Clarkson University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o2qtl8pbjmss</InstitutionID>
		<FieldOfScienceID>26.0203</FieldOfScienceID>
	</Project>
	<Project>
		<ID>329</ID>
		<Name>Clemson</Name>
		<Description>HTC training for the computational scientist at Clemson University.</Description>
		<PIName>Marcin Ziolkowski</PIName>
		<Organization>Clemson University</Organization>
		<Department>Computational Science</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>11.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>653</ID>
		<Name>Clemson_Sarupria</Name>
		<Description>Ensemble-based simulations</Description>
		<PIName>Sapna Sarupria</PIName>
		<Organization>Clemson University</Organization>
		<Department>Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1009461222</ID>
		<Name>Clemson_Wang</Name>
		<Description>Our research objective is to build a foundational model to evaluate heterogeneous, multi-agent robotic teams for multi-modal inputs.</Description>
		<PIName>Yue Wang</PIName>
		<Organization>Clemson University</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>14.4201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>540</ID>
		<Name>CloudTemplate</Name>
		<Description>Cloud Custom Template for Non-Experts</Description>
		<PIName>Prasad Calyam</PIName>
		<Organization>University of Missouri-Columbia</Organization>
		<Department>Electrical Engineering and Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dohu2f6ba08u</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>400</ID>
		<Name>ClusterJob</Name>
		<Description>ClusterJob is a project for 'painless massive computational experiments'. Visit www.clusterjob.org</Description>
		<PIName>Hatef Monajemi</PIName>
		<Organization>Stanford University</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>760</ID>
		<Name>Coe_Stobb</Name>
		<Description>Simulations modeling blood flow out of injury sites in the body using ODE and PDE techniques.</Description>
		<PIName>Michael T. Stobb</PIName>
		<Organization>Coe College</Organization>
		<Department>Mathematical Sciences</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/56nmp7cfr45b</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>992287887</ID>
		<Name>Collab-Staff</Name>
		<Description>Staff supporting mid-size collaborations as part of the OSG Consortium.</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Enrico Fermi Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1978977404</ID>
		<Name>Columbia_Alquraishi</Name>
		<Description>Building a model of protein sequence to structure relationships and using it to predict the DNA binding motifs of transcription factors based on their structure.</Description>
		<PIName>Mohammed Alquraishi</PIName>
		<Organization>Columbia University</Organization>
		<Department>Department of Systems Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>696</ID>
		<Name>Columbia_Eaton</Name>
		<Description>Computation for Plant Phylogenomics</Description>
		<PIName>Deren Eaton</PIName>
		<Organization>Columbia University</Organization>
		<Department>Ecology, Evolution, and Environmental Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>812</ID>
		<Name>Columbia_Gibson</Name>
		<Description>fMRI Data Processing</Description>
		<PIName>Lisa Gibson</PIName>
		<Organization>Columbia University</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>783</ID>
		<Name>Columbia_Jensen</Name>
		<Description>Bayesian biology models</Description>
		<PIName>Johanna Jensen</PIName>
		<Organization>Columbia University</Organization>
		<Department>Department of Ecology, Evolution, and Environmental Biology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>111589878</ID>
		<Name>Columbia_Laine</Name>
		<Description>Mathematical analysis and quantification of medical images, signal and image processing, computer-aided diagnosis and biomedical/imaging informatics.</Description>
		<PIName>Andrew Laine</PIName>
		<Organization>Columbia University</Organization>
		<Department>Biomedical Engineering</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1420515722</ID>
		<Name>Columbia_Mandal</Name>
		<Description>Recent experiments demonstrated that by placing a molecule inside an optical cavity one can modify ground state chemical reactivity. It has been observed that when molecular vibrations are strongly coupled to the quantized radiation field inside an optical cavity, the chemical kinetics is suppressed. The theoretical understanding of such remarkable effects remains elusive. In this work, a quantum dynamics approach for simulating the vibration-cavity (Vibro-Polaritons) hybrid system will be developed.</Description>
		<PIName>Arkajit Mandal</PIName>
		<Organization>Columbia University</Organization>
		<Department>Department of Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1354109771</ID>
		<Name>Columbia_Reichman</Name>
		<Description>In this work, we will develop a coarse-grained semiclassical method  to simulate quantum dynamics of coupled electron-phonon systems.  First, we will benchmark our method against exact numerical approaches and  then combine with ab-initio calculations. Using our approach, we will also  investigate quantum dynamical effects in materials strongly coupled to quantized light.
</Description>
		<PIName>David Reichman</PIName>
		<Organization>Columbia University</Organization>
		<Department>Chemistry Department</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>382</ID>
		<Name>CombinedPS</Name>
		<Description>Design and control of exoskeletons (and prostheses) thus far has been primarily carried out following heuristic methods and exhaustive experimental (design and test) procedures. This approach significantly slows down design iterations and increases project costs. A predictive simulation framework for combined human and device dynamics is a valuable tool that can significantly accelerate optimal device and controller design. 

We are building predictive models of combined muscuoloskeletal and exoskeleton dynamics for walking, where design parameters for the exoskeleton (such as actuation torque profiles) and various objective functions (such as metabolic cost) can be optimized simultaneously.</Description>
		<PIName>Ozkan Celik</PIName>
		<Organization>Colorado School of Mines</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Biological and Critical Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2gwyao3kqhpn</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>56</ID>
		<Name>CometCloud</Name>
		<Description>CometCloud is an autonomic framework for enabling real-world applications on dynamically federated, hybrid infrastructure integrating (public &amp; private) clouds, data-centers and Grids. Specifically, CometCloud provides abstractions and mechanisms to support a range of programming paradigms and real-world applications on such an infrastructure. Furthermore, it enables policy-based autonomic cloud-bridging and cloud-bursting. Autonomic cloud-bridging enables on-the-fly integration of local computational environments (data-centers, grids) and public cloud services (such as Amazon EC2), and autonomic cloud-bursting enables dynamic application scale-out to address dynamic workloads, spikes in demands, and other extreme requirements. Currently, we support various applications as part of our collaborations in multiple domains such as medical diagnostics, material sciences, biology, and engineering.</Description>
		<PIName>Javier Diaz-Montes</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>594</ID>
		<Name>CompBinFormMod</Name>
		<Description>Computational modeling of the formation of black hole and neutron star binary systems.</Description>
		<PIName>Richard O'Shaughnessy</PIName>
		<Organization>Rochester Institute of Technology</Organization>
		<Department>School of Mathematical Sciences</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/khe0lt7x352p</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>18</ID>
		<Name>CompChem</Name>
		<Description>Modeling and simulation of molecules.</Description>
		<PIName>Chaoren Liu</PIName>
		<Organization>Duke University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>19</ID>
		<Name>CompNeuro</Name>
		<Description>To give you a brief idea, I am trying to identify the information flow
among several brain regions in rats in the neuronal level. The rats
were actively doing a aperture discrimination task (whether a gate
opened wide or narrow).  I wish to find not only the static neuronal
circuitry of the sensory input, but also the dynamics of the flow
across time.</Description>
		<PIName>Po-He Tseng</PIName>
		<Organization>Duke University</Organization>
		<Department>Neurobiology</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>20</ID>
		<Name>ConnectTrain</Name>
		<Description>OSG user training activity.</Description>
		<PIName>Christina Koch</PIName>
		<Organization>Open Science Grid</Organization>
		<Department>Research Facilitation</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>108</ID>
		<Name>ContinuousIntegration</Name>
		<Description>Provides continuous build and test services for OSG Connect via Jenkins.</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Technology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1376804992</ID>
		<Name>Cornell_Bradic</Name>
		<Description>We are working on building a new methodology to develop double robust estimators for continuous treatment effect in causal inference, to obtain optimal convergence rate and smaller bias.</Description>
		<PIName>Jelena Bradic</PIName>
		<Organization>Cornell University</Organization>
		<Department>Department of Statistics and Data Science</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>750</ID>
		<Name>Cornell_Gage</Name>
		<Description>Genomic basis of maize protein abundance dysregulation</Description>
		<PIName>Joseph Gage</PIName>
		<Organization>Cornell University</Organization>
		<Department>Institute for Genomic Diversity</Department>
		<FieldOfScience>Agricultural Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>733</ID>
		<Name>Cornell_Lai</Name>
		<Description>Scalable and reproducible bioinformatics through the Galaxy platform</Description>
		<PIName>William KM Lai</PIName>
		<Organization>Cornell University</Organization>
		<Department>Molecular Biology and Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>718</ID>
		<Name>Cornell_Pugh</Name>
		<Description>Bioinformatics Tool Development</Description>
		<PIName>Frank Pugh</PIName>
		<Organization>Cornell University</Organization>
		<Department>Molecular Biology and Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>212539179</ID>
		<Name>Cornell_Sandoz</Name>
		<Description>We study bacterial survival. Particularly, we are interested in cell wall modifications in response to changing environments. https://www.ksandozlab.com/new-page-2</Description>
		<PIName>Kelsi Sandoz</PIName>
		<Organization>Cornell University</Organization>
		<Department>Population Medicine and Diagnostic Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>26.0903</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1148838717</ID>
		<Name>Cornell_Templier</Name>
		<Description>The research is to study the geometry of rounding differentiable functions.</Description>
		<PIName>Nicolas Templier</PIName>
		<Organization>Cornell University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>14.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>110</ID>
		<Name>CotranslationalFolding</Name>
		<Description>There is now a large body of experimental evidence that the ability of many proteins to reach full functionality in a cell depends strongly on the rate at which individual codons are translated by the ribosome during protein synthesis. This project aims to demonstrate that, counter to conventional wisdom, fast-translating codons can help coordinate co-translational protein folding by minimizing misfolding [O’Brien, Nature Comm. 2014]. To do this we will use a two-step approach: First (Aim 1), we will utilize coarse-grained molecular dynamics simulations in combination with a genetic algorithm to find the optimal codon translation rate profile that maximizes the co-translational folding of a protein. And then (Aim 2) mutate, in silico, fast-translating codon positions to slower rates to test, if as predicted, we observe a concomitant decrease in the amount of co-translational folding. The results of this study will provide a new computational tool for the rational design of mRNA sequences to control nascent proten behavior.</Description>
		<PIName>Edward O'Brien</PIName>
		<Organization>The Pennsylvania State University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>328</ID>
		<Name>CpDarkMatterSimulation</Name>
		<Description>Generate a grid of Monte Carlo samples to be used in collider-based searches for dark matter</Description>
		<PIName>Christoph Paus</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>124762769</ID>
		<Name>Creighton_Kokensparger</Name>
		<Description>Digitally analyzing handwritten burial permit records from an historic cemetery.</Description>
		<PIName>Brian Kokensparger</PIName>
		<Organization>Creighton University</Organization>
		<Department>Computer Science, Design &amp; Journalism Department</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wlb963nidmau</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>62</ID>
		<Name>DBConcepts</Name>
		<Description>We're conducting a network analysis of a 10% sample (1.6TB; 3.6m files) of the Google Books corpus.</Description>
		<PIName>Richard Jean So</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Interdisciplinary</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>748</ID>
		<Name>DDPSC_Baxter</Name>
		<Description>Genome-wide association analysis of elemental accumulation in the Maize Nested Association Mapping panel</Description>
		<PIName>Ivan Baxter</PIName>
		<Organization>Donald Danforth Plant Science Center</Organization>
		<Department>Plant Genetics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rsgxpux8bm0h</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>492</ID>
		<Name>DES</Name>
		<Description>Project entry corresponding to the Dark Energy Survey (DES) VO.</Description>
		<PIName>Nikolay Kuropatkin</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>523</ID>
		<Name>DESDM</Name>
		<Description>The Dark Energy Survey (DES) is about to complete its five-year observing program. This consists of a 5000 square-degree wide field survey in 5 optical bands of the Southern sky and a 30 square-degree deep supernova survey with the aim to understand the nature of Dark Energy and the accelerating Universe. DES uses the 3 square-degree CCD camera (DECam), installed at the prime focus of the Blanco 4-m to record the positions and shapes of 300 million galaxies up to redshift 1.4. During a normal night of observations, DES produces about 1 TB of raw data, including science and calibration images, which are transported automatically from Chile to the National Center for Supercomputing Applications in Urbana, Illinois to be archived and reduced. The DES Data Management system (DESDM) is in charge of the processing, calibration and archiving of these data into science-ready data products for analysis by the DES Collaboration and the public.</Description>
		<PIName>Don Petravick</PIName>
		<Organization>National Center for Supercomputing Applications (NCSA)</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ypnvkgxa67oy</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>355</ID>
		<Name>DOSAR</Name>
		<Description>Distributed Organization for Scientific Academic Research. International outreach projects sponsored by the DOSAR Virtual Organization. Students that would like to maintain accounts on OSG.</Description>
		<PIName>Rob Quick</PIName>
		<Organization>DOSAR</Organization>
		<Department>HEP</Department>
		<FieldOfScience>Education</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xvsrc4eixk2g</InstitutionID>
		<FieldOfScienceID>13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>423</ID>
		<Name>DTWclassifier</Name>
		<Description>Pattern classifier of neuronal responses with dynamic time warping as a distance measure.</Description>
		<PIName>Luke Remage-Healey</PIName>
		<Organization>University of Massachusetts Amherst</Organization>
		<Department>Psychological and Brain Sciences</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sqj1fi5b7fdj</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>488</ID>
		<Name>DUNE</Name>
		<Description>Project entry corresponding to the DUNE VO.</Description>
		<PIName>Thomas Robert Junk</PIName>
		<Organization>DUNE</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1134002200</ID>
		<Name>Dartmouth_Chaboyer</Name>
		<Description>Computational stellar models are widely used in astrophysics and are often consulted to interpret observations of starlight. My research group aims to improve stellar models by incorporating updated physics into the models, creating a database of  stellar models for use by other researchers, and to use these improved stellar models to study a variety of issues related  to galactic archelogy and the formation of galaxies. https://stellar.host.dartmouth.edu
</Description>
		<PIName>Brian Chaboyer</PIName>
		<Organization>Dartmouth College</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ay2n55g6y1cq</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>462</ID>
		<Name>DataSaoPaulo</Name>
		<Description>A project for teaching the grid computing component at Sao Paulo, Brazil</Description>
		<PIName>Rob Quick</PIName>
		<Organization>Indiana University</Organization>
		<Department>UITS</Department>
		<FieldOfScience>Education</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>349</ID>
		<Name>DataTrieste</Name>
		<Description>CODATA/RDA Summer School on Research Data Science</Description>
		<PIName>Rob Quick</PIName>
		<Organization>International Center for Theoretical Physics</Organization>
		<Department>Education</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p735q1p38unz</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1204137902</ID>
		<Name>Dearborn_Shawver</Name>
		<Description>AP Research project on 3x+1 conjecture</Description>
		<PIName>Kimberly Shawver</PIName>
		<Organization>Dearborn Center for Math, Science, and Technology</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v8uoprmk1nb2</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>413</ID>
		<Name>DeepMail</Name>
		<Description>To develop a contextual search technique on a given text corpus. The idea is to develop a search model using Deep Learning techniques and Natural Language Processing. More specifically, we are currently exploring Word Embedding techniques in NLP and Neural Network models like Word2Vec. The model would first train itself on the existing email corpus of a given user and then be able to provide search results based on contextual queries.</Description>
		<PIName>Micheal Marasco</PIName>
		<Organization>Northwestern University</Organization>
		<Department>Farley Center for Entrepreneurship and Innovation</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/5vvknn2bzgvt</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>57</ID>
		<Name>DeerDisease</Name>
		<Description>I have created an individual-based computer model simulating disease spread in deer populations. The population in the model is represented by deer agents that all follow rules and behaviors. I am using Repast Simphony 1.0 and the code is written in java.</Description>
		<PIName>Lene Jung Kjaer</PIName>
		<Organization>Southern Illinois University</Organization>
		<Department>Department of Zoology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/530k2ll1w59q</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>148</ID>
		<Name>DelhiWorkshop2015</Name>
		<Description>Workshop at Delhi</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>172</ID>
		<Name>DemandSC</Name>
		<Description>We estimate switching costs with aggregate data in the context of price wars and collusion to study how mergers and changes to market structure affect welfare under the different competitive scenarios</Description>
		<PIName>Fernando Luco</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>52.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>530</ID>
		<Name>DemoSims</Name>
		<Description>Population demographics</Description>
		<PIName>Jeffrey D Jensen</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Life Sciences</Department>
		<FieldOfScience>Evolutionary Biology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>5</ID>
		<Name>DetectorDesign</Name>
		<Description>Investigate how different simulated SPECT system geometries can affect reconstructed images.</Description>
		<PIName>John Strologas</PIName>
		<Organization>University of New Mexico</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pclpz1bwbpdi</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>506</ID>
		<Name>DiffCorr</Name>
		<Description>Dynamics of electrons with different degree of correlations</Description>
		<PIName>Jacek Herbrych</PIName>
		<Organization>University of Tennessee</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hp8930spi37u</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>457</ID>
		<Name>Diffpred</Name>
		<Description>Modelling and simulation of diffusion magnetic resonance images (dMRI) using white matter tract mapping information</Description>
		<PIName>Franco Pestilli</PIName>
		<Organization>Indiana University</Organization>
		<Department>Neuroscience</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>455</ID>
		<Name>Diffusion-predictor</Name>
		<Description>Diffusion predictor from IU Brain Science</Description>
		<PIName>Soichi Hayashi</PIName>
		<Organization>Indiana University</Organization>
		<Department>Brain Science</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>473</ID>
		<Name>Dissertation</Name>
		<Description>This study involves the use of Monte Carlo simulation methods to test the use of mixture models to improve the estimation of a latent ability.</Description>
		<PIName>Ann Arthur</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Educational Psychology</Department>
		<FieldOfScience>Educational Psychology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>42.2806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>148621510</ID>
		<Name>Doane_Engebretson</Name>
		<Description>Parallel computing class</Description>
		<PIName>Alec Engebretson</PIName>
		<Organization>Doane University</Organization>
		<Department>Information Science &amp; Tech</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f9c86mft1gzz</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1176439649</ID>
		<Name>Doane_Meysenburg</Name>
		<Description>This fall, I'm teaching a seminar for undergraduate students participating in the "Developing Computational Efficacy and Skill Within an Inclusive Community of Practice in the Natural Sciences" NSF grant, award number 2142238. In the grant, we teach natural science students coding skills through Python image processing. A central part of the seminar is to teach the students how to improve the performance of their Python code. As a capstone to that portion of the class, students will use OSG Services.</Description>
		<PIName>Mark Meysenburg</PIName>
		<Organization>Doane University</Organization>
		<Department>Information Science &amp; Technology</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f9c86mft1gzz</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1986114859</ID>
		<Name>Doshisha_ADS_2025_Koita</Name>
		<Description>Computer and information course, including scientific computing using high throughput computing systems.</Description>
		<PIName>Takahiro Koita</PIName>
		<Organization>Doshisha University</Organization>
		<Department>Faculty of Science and Engineering Department of Information Systems Design</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ta9ty4fg27q4</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>763263391</ID>
		<Name>Drexel_URCF</Name>
		<Description>Accounts for Drexel University Research Computing Facility Staff; Information about our facility: https://drexel.edu/core-facilities/facilities/research-computing/ 
</Description>
		<PIName>David Chin</PIName>
		<Organization>Drexel University</Organization>
		<Department>University Research Computing Facility</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g2gycmag14p1</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>14</ID>
		<Name>Duke-QGP</Name>
		<Description>Event-by-event simulations of relativistic heavy-ion collisions.  QGP characterization via model-to-data comparison.</Description>
		<PIName>Steffen A. Bass</PIName>
		<Organization>Duke University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1477014382</ID>
		<Name>Duke_Charbonneau</Name>
		<Description>Periodic microphases universally emerge in systems for which short-range inter-particle attraction is frustrated by long-range repulsion. The morphological richness of these phases makes them desirable material targets, but our relatively coarse understanding of even simple models limits our grasp of their assembly.  The OSG computing resources will enable us to explore more solutions of the equilibrium phase behavior of a family of similar microscopic microphase formers through specialized Monte Carlo simulations.
</Description>
		<PIName>Patrick Charbonneau</PIName>
		<Organization>Duke University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2039537758</ID>
		<Name>Duke_Kamaleswaran</Name>
		<Description>Development of novel machine learning methods for temporal irregular event streams and to derive novel causal inference from the time series.</Description>
		<PIName>Rishi Kamaleswaran</PIName>
		<Organization>Duke University</Organization>
		<Department>Surgery</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>74843387</ID>
		<Name>Duke_Singh</Name>
		<Description>Understanding the kinetics of drug-target interactions is important for designing therapeutics with desirable pharmacological profiles. Current experimental and simulation methods for studying ligand residence time are expensive and low-throughput. We seek to model ligand residence time for numerous systems using molecular dynamics simulations and distill this information into a machine learning predictive model that can be applied to high-throughput screening and optimization. Lab website:  https://singhlab.net/.</Description>
		<PIName>Rohit Singh</PIName>
		<Organization>Duke University</Organization>
		<Department>Biostatistics &amp; Bioinformatics, Cell Biology</Department>
		<FieldOfScience>Computational Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>26.1104</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1150572103</ID>
		<Name>ECE_Hu</Name>
		<Description>Machine learning method development and implementation</Description>
		<PIName>Yu Hen Hu</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.4701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1439712351</ID>
		<Name>ECE_Lee</Name>
		<Description>Theory and algorithms for foundation models.</Description>
		<PIName>Kangwook Lee</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Electrical &amp; Computer Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>344715790</ID>
		<Name>ECE_Mawst</Name>
		<Description>Modeling the design and behavior of components for semiconductor materials, devices, and lasers.</Description>
		<PIName>Luke Mawst</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.4701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1860189474</ID>
		<Name>ECE_Miguel</Name>
		<Description>The Miguel group explores new paradigms such as approximate, stochastic and intermittent computing for energy-harvesting IoT devices as well as traditional architectures, ranging from microarchitectural topics (e.g., branch prediction, value prediction) to cache hierarchies and networks-on-chip for many-core processors.

https://jsm.ece.wisc.edu/</Description>
		<PIName>Joshua San Miguel</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.4701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>419596106</ID>
		<Name>ECE_Vinayak</Name>
		<Description>My research broadly spans the areas of Machine Learning, Statistical Inference, and Crowdsourcing. My research vision is to develop theoretically grounded machine learning tools to make reliable inferences using data that comes from people. </Description>
		<PIName>Ramya Korlakai Vinayak</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Electrical &amp; Computer Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>8</ID>
		<Name>ECFA</Name>
		<Description>Simulate hundreds of millions of high-energy
proton proton collisions, which mimic the
collisions expected at the LHC in the coming
years.  This simulated data is used to assess the
physics potential of potential detector upgrades,
allowing decision makers and funding agencies to
plan for the future.</Description>
		<PIName>Meenakshi Narain</PIName>
		<Organization>Brown University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0ytxfy0n4hol</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>361</ID>
		<Name>EDFCHT</Name>
		<Description>The project looks into the use of heteroskedasticity consistent variance-covariance estimators for conducting hypothesis testing. It uses Monte Carlo and bootstrap techniques to find the distribution of t-statistics using heteroskedasticity consistent variance-covariance estimator under normality and nonnormality. Comparison between using different heteroskedasticity consistent estimators are included and possible corrections are proposed and will be examined.</Description>
		<PIName>Jianghao Chu</PIName>
		<Organization>University of California, Riverside</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zy99b9jjoqpb</InstitutionID>
		<FieldOfScienceID>42.27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>188</ID>
		<Name>EHEC</Name>
		<Description>Project Description: Our research is primarily focused on the transmission and evolution of two zoonotic pathogens, enterohemorrhagic Escherichia coli (EHEC) and Salmonella. These pathogens reside in the intestinal tracts of animal hosts where they encounter diverse microbial communities, fluctuating nutrient levels, and myriad host factors. Transmission between hosts requires these pathogens to survive varied environmental conditions. The general stress protection system (regulated by the alternative sigma factor, σs) is known to play a central role in environmental persistence and transmission. Acid and desiccation tolerance are two transmission-associated phenotypes that are dependent upon σs –regulated genes. We are also investigating the role of prophage in fitness. EHEC harbor multiple lambda-like prophage and cryptic phage remnants in their genome that facilitate genomic rearrangements, gene duplications, and deletions by homologous recombination. 
We are investigating how these phage-mediated genomic rearrangements influence the persistence of EHEC in its bovine host and the environment. The goals of our research are to use results from these fundamental studies in the development of strategies to reduce pathogen transmission.</Description>
		<PIName>Chuck Kaspar</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Bacteriology</Department>
		<FieldOfScience>Microbiology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>323538648</ID>
		<Name>EHT_2023_Chan</Name>
		<Description>The EHT project combines data from several very-long-baseline interferometry (VLBI) stations around Earth, which form a combined array with an angular resolution sufficient to observe objects the size of a supermassive black hole's event horizon. The project's observational targets include the two black holes with the largest angular diameter as observed from Earth: the black hole at the center of the supergiant elliptical galaxy Messier 87, and Sagittarius A*, at the center of the Milky Way.</Description>
		<PIName>Chi-Kwan Chan</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>12</ID>
		<Name>EIC</Name>
		<Description>Electron Ion Collider (EIC) at BNL: Modeling the performance and optimizing the design of the prospected future Electron Ion Collider (EIC) at BNL.  https://wiki.bnl.gov/eic/index.php/Main_Page</Description>
		<PIName>Tobias Toll</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>526</ID>
		<Name>EICpseudodata</Name>
		<Description>Monte Carlo simulations of particle production in the set-up corresponding to the kinematics of observables, which are planned to be measured in the future US-based Electron Ion Collider facility.</Description>
		<PIName>Vladimir Khachatryan</PIName>
		<Organization>State University of New York at Stony Brook</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qqd2s2b6m7eh</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>427</ID>
		<Name>EMODIS-NDVI</Name>
		<Description>processing EMODIS NDVI using HTC</Description>
		<PIName>Dayne Broderson</PIName>
		<Organization>University of Alaska Fairbanks</Organization>
		<Department>Geographic Information Network of Alaska</Department>
		<FieldOfScience>Geographic Information Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/85bj3tcfwa1z</InstitutionID>
		<FieldOfScienceID>45.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>191</ID>
		<Name>ERVmodels</Name>
		<Description>Project Description: Endogenous retroviruses (ERVs) are viewed as ancient retroviral infections in vertebrate genomes and are commonly referred to as viral fossils, accounting for approximately 8% of the human genome. In order to increase our understanding of these viruses in host genomes, I am developing more complex models that describe the evolution of ERVs in host genomes. Specifically, I am interested in understanding evolutionary patterns of ERVs that have intact genes and are theoretically able to re-infect when 
compared to those that lost this ability.</Description>
		<PIName>Fabricia Nascimento</PIName>
		<Organization>University of Oxford</Organization>
		<Department>Department of Zoology</Department>
		<FieldOfScience>Zoology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rs6jusb08ogc</InstitutionID>
		<FieldOfScienceID>26.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2107736775</ID>
		<Name>ETHZ_Zhang</Name>
		<Description>To make machine learning techniques widely accessible.</Description>
		<PIName>Ce Zhang</PIName>
		<Organization>ETH Zurich</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fuib5manpc6a</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1389453473</ID>
		<Name>EWMS_Riedel_Startup</Name>
		<Description>WIPAC is focused on neutrino astrophysics, operating the IceCube Neutrino Observatory and other projects around the world.</Description>
		<PIName>Benedikt Riedel</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Wisconsin IceCube Particle Astrophyics Center</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.0903</FieldOfScienceID>
	</Project>
	<Project>
		<ID>58267066</ID>
		<Name>Emory_Boettcher</Name>
		<Description>Finite-size corrections in spin glasses and combinatorial optimization</Description>
		<PIName>Stefan Boettcher</PIName>
		<Organization>Emory University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yaw5atxcrn55</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>557024568</ID>
		<Name>Emory_Chavez</Name>
		<Description>Simulate Monte Carlo experiments of social interaction models to assess the small sample performance of the estimator.</Description>
		<PIName>David Jacho-Chavez</PIName>
		<Organization>Emory University</Organization>
		<Department>Department of Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yaw5atxcrn55</InstitutionID>
		<FieldOfScienceID>42.2707</FieldOfScienceID>
	</Project>
	<Project>
		<ID>326564611</ID>
		<Name>Emory_Pesavento</Name>
		<Description>The goal of our research project is to develop a new technique to estimate impulse response functions in Time-varying-parameters vector autoregressive models (in short: TVP-VARs). TVP-VARs are particularly useful because, unlike traditional VAR models, they accounts for changing economic conditions by allowing parameters to change over time. Estimating impulse responses (one of the main tools in macroeconomic analysis) in a TVP-VAR requires the implementation of Markov Chain Montecarlo algorithms (such as Gibbs sampling). This is a computationally demanding task in a TVP-VAR framework, due to the huge number of parameters to estimate. However, we could substantially ease such task by using parallel computing techniques. In this way, we could provide policy makers with a more realistic and flexible framework use to perform macroeconomic policy evaluation."
</Description>
		<PIName>Elena Pesavento</PIName>
		<Organization>Emory University</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yaw5atxcrn55</InstitutionID>
		<FieldOfScienceID>45.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>367</ID>
		<Name>EmpModNatGas</Name>
		<Description>I study the privately negotiated outcomes of the natural gas leasing market for mineral rights using a one-to-many matching model that allows for the presence of complementary preferences among firms negotiating bundles of land leases.</Description>
		<PIName>Ashley Vissing</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>3.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1865982479</ID>
		<Name>EngrPhysics_Wilson</Name>
		<Description>The Wilson group focuses on developing improved tools for computational modeling of complex nuclear energy systems, with applications in radiation shielding, nuclear waste management, nuclear non-proliferation and energy policy.</Description>
		<PIName>Paul Wilson</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Nuclear Engineering &amp; Engineering Physics</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.2301</FieldOfScienceID>
	</Project>
	<Project>
		<ID>452</ID>
		<Name>EpiBrain</Name>
		<Description>We are trying to better understand how networks evolve in the brain of animals and humans with epilepsy. We hope to leverage this information in the design of more effective electrical stimulation paradigms.</Description>
		<PIName>David Mogul</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Biomedical Engineering</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>351028049</ID>
		<Name>Etown_Wittmeyer</Name>
		<Description>I am interested in examining experience-dependent neuroplasticity and individual differences in humans as it pertains to learning and memory.  In particular, I analyze structural magnetic resonance imaging (sMRI) data from various neuroimaging data-sharing platforms to explore changes in gray matter across learning and/or correlate learning performance with various cognitive and demographic factors.</Description>
		<PIName>Jennifer Legault Wittmeyer</PIName>
		<Organization>Elizabethtown College</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Psychology and Life Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zwt3bodiwnsy</InstitutionID>
		<FieldOfScienceID>26.1599b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2122690389</ID>
		<Name>Eureka_Danehkar</Name>
		<Description>Modeling Reflection around Black Holes</Description>
		<PIName>Ashkbiz Danehkar</PIName>
		<Organization>Eureka Scientific, Inc.</Organization>
		<Department>Eureka Scientific</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ldk00hbo5m5x</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>354</ID>
		<Name>EvoProtDrug</Name>
		<Description>Little is known about the evolutionary pathways enabling a protein to change its function to changing environmental needs, especially in regards to metabolism and toxicity. Evolution simulations that explicitly model the three-dimensional interaction of mutated proteins with their targets is a new approach that complements the ongoing explosion of directed evolution experiments. In this project, the evolutionary dynamics of a lattice representation of antibiotic resistance protein (beta lactamase) is studied by enhanced-sampling folding-binding simulations for an initial protein undergoing selection-dependent mutation to bind a new antibiotic. The goals of this work are to understand the fundamental physical bottlenecks and dynamical behavior of protein evolution. Important questions include the extent of dominant pathways (convergent evolution) and phase transitions in evolutionary rates (punctuated equilibrium). These principals and their structural underpinnings can also be used to inform rational design of antibiotics that exploit bottlenecks in pathogen mutational response.</Description>
		<PIName>Milo Lin</PIName>
		<Organization>UT Southwestern</Organization>
		<Department>Green Center for Systems Biology</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26ns7uva5t0a</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>21</ID>
		<Name>EvoTheory</Name>
		<Description>Linkage disequilibrium's contribution to the maintenance of sexual reproduction

Though sexual reproduction is nearly ubiquitous in nature, its costs are substantial. Foremost among these costs are the twofold cost of males and the cost of destroying successful genetic associations. Understanding the paradox of the persistence of sex despite these detriments is a central question in evolutionary theory. In order to persist regardless of these disadvantages, the benefits of sexual reproduction must be substantial - offspring of sexual reproduction must have at least twice the fitness of asexual clones. The most generalizable hypotheses addressing the benefits of sex propose that genetic drift increases linkage disequilibrium, creating a surfeit of genomes with intermediate fitness. Sexual recombination eliminates linkage disequilibrium, thereby increasing genetic variation for fitness and improving the efficiency of natural selection. However, previous research using this framework has failed to address the biological reality of interactions between genes. Because the cost of destroying beneficial genetic interactions is one of the major costs of sex, this cannot be overlooked. In this work, I use a computational gene network model in which genes interact and genetic interactions evolve to investigate the hypothesis that linkage disequilibrium decreases the fitness and adaptability of asexual populations. I test this both by evolving artificial organisms in conditions that will increase linkage disequilibrium, and by evolving them in an environment with a shifting optimum, which will make linkage disequilibrium more costly. 

I am running a python script that runs populations of artificial gene networks (numerical matrices) through repeated rounds (on the order of 10s of thousands) of mutation, selection and reproduction, analyzing the evolutionary dynamics of these populations, and storing the data generated by this in text files.</Description>
		<PIName>Christina Burch</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>420</ID>
		<Name>EvolCE</Name>
		<Description>Multi-locus simulations under periodic environments.</Description>
		<PIName>Davorka Gulisija</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>166</ID>
		<Name>EvolSims</Name>
		<Description>Evolutionary simulation tracking gene frequencies under a variety of environmental conditions.</Description>
		<PIName>Oana Carja</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26.131</FieldOfScienceID>
	</Project>
	<Project>
		<ID>176</ID>
		<Name>EvolvingAI</Name>
		<Description>Modern day software and robotics are notorious for lacking robustness and adaptability, often breaking down when encountering unexpected situations. Natural animals, on the other hand, are well known for their robustness and their ability to adapt to new environments. The Evolving Artificial Intelligence project aims to study how the robustness and adaptability of natural animals evolved, both to learn more about natural evolution, and to increase the robustness and adaptability of modern software and robotics systems.</Description>
		<PIName>Jeff Clune</PIName>
		<Organization>University of Wyoming</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/08r7n3jv5f14</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>66</ID>
		<Name>ExhaustiveSearch</Name>
		<Description>ExhaustiveSearch (or ExSearch) is a machine learning application tuned to analyze class-labeled data using n-tuple feature vectors.</Description>
		<PIName>Sam Volchenboum</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>528</ID>
		<Name>ExoplanetaryACS</Name>
		<Description>In this project, the absorption cross section (or molecular opacity) and important exoplanetary atmospheric molecules will be generated.</Description>
		<PIName>Michael R. Line</PIName>
		<Organization>Arizona State University</Organization>
		<Department>School of Earth and Space Exploration</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>509</ID>
		<Name>FDDRCS</Name>
		<Description>The Project entails the estimation of a general equilibrium heterogenous firms dynamic model with default. The Project is related to the paper "Financial Development, Default Rates, and Credit Spreads" (abstract below), at the moment R&amp;R at the Economic Journal.</Description>
		<PIName>Alessandro Peri</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>45.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1292661474</ID>
		<Name>FDLTCC_Wetherbee</Name>
		<Description>Using Open Science Pool for 1D simulation problems</Description>
		<PIName>Ted Wetherbee</PIName>
		<Organization>Fond du Lac Tribal &amp; Community College</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/49ek6whykyi8</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>589</ID>
		<Name>FECliu</Name>
		<Description>Monte Carlo simulations for designing channel error correction codes</Description>
		<PIName>Yanfang Liu</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Electrical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>522</ID>
		<Name>FEMyo</Name>
		<Description>Using FEM and multi-parametric design to perform mechanical simulations of metamaterial structures for the purpose of mechanical characterization. These structures will subsequently be screened for use as a myocardial support device.</Description>
		<PIName>Kevin Costa</PIName>
		<Organization>Icahn School of Medicine at Mount Sinai</Organization>
		<Department>Cardiology</Department>
		<FieldOfScience>Biomedical research</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uwam2e6xh8l2</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>611</ID>
		<Name>FF15IPQEXT</Name>
		<Description>Parameterizing force fields for artificial amino acids through molecular dynamic simulations</Description>
		<PIName>Lillian Chong</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>100</ID>
		<Name>FFValidate</Name>
		<Description>This project will involve running molecular dynamics simulations to validate new protein force fields.  We will be comparing the results of the simulations to experimental protein crystal structures and nuclear magnetic resonance (NMR) measurements.</Description>
		<PIName>Vijay Pande</PIName>
		<Organization>Stanford University</Organization>
		<Department>Department of Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>564</ID>
		<Name>FIFE</Name>
		<Description>Project entry corresponding to FIFE experiments within the Fermilab VO.</Description>
		<PIName>Kenneth Herner</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1297859754</ID>
		<Name>FIU_Bobadilla</Name>
		<Description>We are creating a large repository for simulation data, and we want to provide our colleagues with options to run model calculations whose outcomes would be stored in our repository.</Description>
		<PIName>Leonardo Bobadilla</PIName>
		<Organization>Florida International University</Organization>
		<Department>Computing and Information Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1777853614</ID>
		<Name>FIU_DCunha</Name>
		<Description>To implement a reconfigurable compute environment, RAPTOR proposes to adopt the Chameleon Cloud Infrastructure for on-demand resource allocation, and the Open Science Grid (OSG)</Description>
		<PIName>Cassian D’Cunha</PIName>
		<Organization>Florida International University</Organization>
		<Department>Department of Information Technology</Department>
		<FieldOfScience>NSF RAPTOR Project / Computer and Information Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>871498985</ID>
		<Name>FIU_Fierst</Name>
		<Description>Research in the Fierst lab focuses around computational approaches to studying evolution of the genome in different organisms. We study how life is organized, structured, and changes and how we can use theory, computational models and bioinformatic analyses to understand it. https://case.fiu.edu/about/directory/profiles/fierst-janna.html; https://jfierst9.wixsite.com/my-site-1</Description>
		<PIName>Janna Fierst</PIName>
		<Organization>Florida International University</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>902788060</ID>
		<Name>FIU_Guo</Name>
		<Description>My research in experimental nuclear physics requires large amounts of  simulations. These simulations are independent of one another and the OSPool is  very well suited for these tasks. Access to the OSG computing resources would be  a useful asset for my research.
</Description>
		<PIName>Lei Guo</PIName>
		<Organization>Florida International University</Organization>
		<Department>College of Arts and Science</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>749062086</ID>
		<Name>FIU_Hamid</Name>
		<Description>https://fphlm.cs.fiu.edu/</Description>
		<PIName>Shahid Hamid</PIName>
		<Organization>Florida International University</Organization>
		<Department>IHRC</Department>
		<FieldOfScience>Ocean Sciences and Marine Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>30.3201b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>741135462</ID>
		<Name>FIU_Jha</Name>
		<Description>Our research group focuses on artificial intelligence with an emphasis on creating explainable AI models.</Description>
		<PIName>Sumit Kumar Jha</PIName>
		<Organization>Florida International University</Organization>
		<Department>Knight Foundation School of Computing and Information Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>147414184</ID>
		<Name>FIU_Leon</Name>
		<Description>This research focuses on investigating the impact of urban tree canopies and green infrastructure on microclimatic conditions, particularly in mitigating the Urban Heat Island (UHI) effect in tropical climates. Using Computational Fluid Dynamics (CFD) simulations in OpenFOAM, the study models heat transfer, airflow, and solar radiation distribution in urban environments with varying vegetation density. Environmental parameters such as air temperature, humidity, solar radiation, and wind speed are measured using on-site sensors, including HOBO light and weather sensors, to validate and calibrate the simulation results.

The study specifically analyzes how tree crown structure, height, and leaf density affect local cooling potential, shading, and radiation absorption under different solar conditions. Radiation models like fvDOM with solarLoad integration and solarOpticalProperties are used to simulate the interaction between solar energy and vegetation.

Results are used to inform urban planning and sustainable landscape design, providing evidence-based recommendations for green infrastructure strategies to improve thermal comfort and environmental quality in urban areas.</Description>
		<PIName>Arturo Leon</PIName>
		<Organization>Florida International University</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>14.0899b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2060199812</ID>
		<Name>FIU_Li</Name>
		<Description>Vector biology and genomics</Description>
		<PIName>Jun Li</PIName>
		<Organization>Florida International University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>26.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>870622391</ID>
		<Name>FIU_Obeysekera</Name>
		<Description>We conduct research on sea level variability using AI/ML methods with a range of contributing factors based on tide gauges and satellites and model based reanalysis data. Also, we analyze both global and regional climate model outputs to understand future conditions and their impacts on urban and natural environments.</Description>
		<PIName>Jayantha Obeysekera</PIName>
		<Organization>Florida International University</Organization>
		<Department>Sea Level Solutions Center, Institute of Environment</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>40.0401</FieldOfScienceID>
	</Project>
	<Project>
		<ID>553220193</ID>
		<Name>FNAL_Hoeche</Name>
		<Description>Sherpa is a Monte Carlo event generator for the Simulation of High-Energy Reactions of PArticles in lepton-lepton, lepton-photon, photon-photon, lepton-hadron and hadron-hadron collisions. Simulation programs - also dubbed event generators - are indispensable computational tools for particle physics phenomenology and are the interface between theory and experiment.</Description>
		<PIName>Stefan Hoeche</PIName>
		<Organization>Fermilab</Organization>
		<Department>Fermilab Theory Division</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>967708798</ID>
		<Name>FNAL_Singh</Name>
		<Description>Numerical studies of strongly coupled quantum field theories, relevant for high-energy physics, using Monte Carlo and tensor network methods -- with a particular focus on realtime dynamics such as scattering processes and other nonequilibrium phenomenon.</Description>
		<PIName>Hersh Singh</PIName>
		<Organization>Fermi National Accelerator Laboratory</Organization>
		<Department>Quantum Theory</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>365</ID>
		<Name>FRISpoilageProject</Name>
		<Description>We are using the Mothur pipeline to clean and analyze 16S rRNA gene sequences collected from sous vide vegetables that were held under refrigeration until the onset of spoilage. (Goal- To identify microorganisms responsible for spoilage in sous vide processed vegetables)</Description>
		<PIName>Chuck Kaspar</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Microbiology</Department>
		<FieldOfScience>Microbiology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>706</ID>
		<Name>FSU_Kolberg</Name>
		<Description>Search for Higgs boson decays to long-lived scalar particles</Description>
		<PIName>Ted Kolberg</PIName>
		<Organization>Florida State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>97362231</ID>
		<Name>FSU_RCC</Name>
		<Description>The Research Computing Center at Florida State University enables research and education by maintaining a diverse campus cyberinfrastructure</Description>
		<PIName>Paul van der Mark</PIName>
		<Organization>Florida State University</Organization>
		<Department>Research Computing Center</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>11.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>797</ID>
		<Name>Fairfield_Kubasik</Name>
		<Description>I seek to perform molecular dynamics simulations using Gromacs. Specifically, I seek to run trajectories of short peptide molecules in various solvents in order to compute infrared spectra and configurational free energy differences.</Description>
		<PIName>Matthew Kubasik</PIName>
		<Organization>Fairfield</Organization>
		<Department>Department of Chemistry &amp; Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/j7cdzoql3356</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>486</ID>
		<Name>Fermilab</Name>
		<Description>Project entry corresponding to Fermilab VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>654</ID>
		<Name>Flightworthy</Name>
		<Description>HTCondor development activities</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>464</ID>
		<Name>Fluka</Name>
		<Description>FLUKA Monte Carlo calculations</Description>
		<PIName>Sunil Chitra</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1059199652</ID>
		<Name>FranklinMarshall_Brooks</Name>
		<Description>Franklin &amp; Marshall College in Lancaster, Pennsylvania, is a small liberal arts college with a little over 1,800 students and just two full-time IT staff dedicated to helping research faculty. Looking for ways to assist research staff—as well as making them self-sufficient—was paramount given the limited staff.</Description>
		<PIName>Jason Brooks</PIName>
		<Organization>Franklin &amp; Marshall College</Organization>
		<Department>Research Computing Services</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vfr5kfa0m5vm</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>177</ID>
		<Name>FutureColliders</Name>
		<Description>Studies of physics potential of future high-energy experiments
(VLHC, FCC) with performance significantly beyond the Large Hadron Collider. The project will focus on Monte Carlo simulations for future energy fronter at DOE</Description>
		<PIName>Sergei Chekanov</PIName>
		<Organization>Argonne National Laboratory</Organization>
		<Department>High Energy Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26xdp9lwzmhd</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>159747929</ID>
		<Name>GATech_2025_McDaniel</Name>
		<Description>High-throughput molecular dynamics (MD) simulations for a variety of applications (rocket propellants, battery electrolytes, water purification materials).</Description>
		<PIName>Jesse McDaniel</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Mathematical and Physical Sciences</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>14.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>706960238</ID>
		<Name>GATech_Banerjee</Name>
		<Description>Developing deep reinforcement learning approaches to learn optimal control strategies for driving microbial populations to desired physiological states. This research has applications to preventing resistance development in bacteria and cancer.</Description>
		<PIName>Shiladitya Banerjee</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>School of Physics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>657</ID>
		<Name>GATech_Brown</Name>
		<Description>Brain imaging to understand memory and spatial navigation</Description>
		<PIName>Thackery Brown</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1670816791</ID>
		<Name>GATech_Bryngelson</Name>
		<Description>https://mflowcode.github.io/
Multiphase and Multiphysics Flow Code Capable of Performing High-Fidelity Simulations for Variety of Applications: Aerodynamics, Magnetohydrodynamics, Flow Instabilities, etc.</Description>
		<PIName>Spencer Bryngelson</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>School of Computational Science and Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>14.1101b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>438261227</ID>
		<Name>GATech_Cadonati</Name>
		<Description>Gravitational Wave Astrophysics, working on running unmodelled reconstruction of signals and tests of general relativity.</Description>
		<PIName>Laura Cadonati</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>595</ID>
		<Name>GATech_Chau</Name>
		<Description>Attention Shift Visualization</Description>
		<PIName>Polo Chau</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Computer Science and Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>782903564</ID>
		<Name>GATech_Coogan</Name>
		<Description>We are attempting to run a simulation for Georgia Tech's Robotarium on our website when users upload run files. Our simulator is based on https://github.com/robotarium/robotarium_python_simulator , with edits to certain functions.</Description>
		<PIName>Samuel Coogan</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Electrical, Electronic, and Communications</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>15.0405</FieldOfScienceID>
	</Project>
	<Project>
		<ID>619962250</ID>
		<Name>GATech_Jezghani</Name>
		<Description>Free neutron and nuclear isotope beta decay is a sensitive test of the Standard Model and probe for BSM physics that complements high-energy efforts such as those at the LHC. Precision efforts such as the Nab experiment at ORNL rely on high-statistics simulations to constrain error. More details can be seen at https://nab.phys.virginia.edu.</Description>
		<PIName>Aaron Jezghani</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>PACE</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>570977624</ID>
		<Name>GATech_Lang</Name>
		<Description>Use a 3D thermal model to invert thermochronometer data for constraining the subsurface orientation and slip history of faults, exhumation of landscapes and sedimentation of basins.</Description>
		<PIName>Karl Lang</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>EAS</Department>
		<FieldOfScience>Earth Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40</FieldOfScienceID>
	</Project>
	<Project>
		<ID>628648595</ID>
		<Name>GATech_Otte</Name>
		<Description>We working on a neutrino telescope called the Trinity Demonstrator. We are in search of Tau Neutrinos at PeV-EeV to look for neutrino sources from extragalactic sources. https://trinity.physics.gatech.edu/the-demonstrator/</Description>
		<PIName>Nepomuk Otte</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>School of Physics, CRA</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>775</ID>
		<Name>GATech_PACE</Name>
		<Description>Partnership for an Advanced Computing Environment (PACE) provides faculty participants a sustainable leading-edge high performance computing (HPC) infrastructure with technical support services.</Description>
		<PIName>Ruben Lara</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>PACE</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1316098950</ID>
		<Name>GATech_Ramprasad</Name>
		<Description>Develop and apply computational and machine learning tools to accelerate materials discovery. More information can be found here: https://ramprasad.mse.gatech.edu/</Description>
		<PIName>Rampi Ramprasad</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Material Science</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>14.1801b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>595</ID>
		<Name>GATech_Randall</Name>
		<Description>Self Organizing Particle Systems</Description>
		<PIName>Dana Randall</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>798</ID>
		<Name>GATech_Ross</Name>
		<Description>Facilitation for GATech H. Milton Stewart School of Industrial and Systems Engineering</Description>
		<PIName>Kelly Ross</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>School of Industrial and Systems Engineering</Department>
		<FieldOfScience>Industrial and Manufacturing Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>848</ID>
		<Name>GATech_Sholl</Name>
		<Description>Atomically-detailed simulation methods (e.g. Molecular Dynamics, Monte Carlo and quantum chemistry methods) are used to develop models of molecular separations based on adsorption in structured nanoporous materials. These materials include zeolites, metal-organic framework materials, activated carbons and polymers. A long-term goal is the discovery of new adsorbent materials for a diverse range of chemical separations, a problem for which a very large search space exists.</Description>
		<PIName>David Sholl</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Chemical &amp; Biomolecular Engineering</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>14.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>707</ID>
		<Name>GATech_Taboada</Name>
		<Description>IceCube neutrino sources search</Description>
		<PIName>Ignacio Taboada</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>871308901</ID>
		<Name>GLOW</Name>
		<Description>HTC jobs flocking to the OSPool from CHTC</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>CHTC</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>405</ID>
		<Name>GLUEX</Name>
		<Description>GlueX project</Description>
		<PIName>Kurt Strosahl</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>481</ID>
		<Name>GPCRbinders</Name>
		<Description>Computational design of protein-based affinity reagents capable of binding to GPCRs and inducing an agonized or antagonize state, or binding in a function-independent manner.</Description>
		<PIName>Christopher Bahl</PIName>
		<Organization>Institute for Protein Innovation</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ea601omjb65w</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>977036130</ID>
		<Name>GPN</Name>
		<Description>GPN regional workflow development efforts to encourage new projects.</Description>
		<PIName>James Deaton</PIName>
		<Organization>Great Plains Network</Organization>
		<Department>Research Computing</Department>
		<FieldOfScience>Multidisciplinary</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ssmtibyuojo6</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>574</ID>
		<Name>GRAPLEr</Name>
		<Description>The GLEON Research And PRAGMA Lake Expedition (GRAPLE) is a collaborative effort between computer science and lake ecology researchers.  It aims to improve our understanding and predictive capacity of the threats to the water quality of our freshwater resources, including climate change. GRAPLEr is a distributed computing system used to address the modeling needs of GRAPLE researchers. GRAPLEr integrates and applies overlay virtual network, high-throughput computing, and Web service technologies in a novel way. First, its user-level IP-over-P2P (IPOP) overlay network allows compute and storage resources distributed across independently-administered institutions (including private and public clouds) to be aggregated into a common virtual network, despite the presence of firewalls and network address translators. Second, resources aggregated by the IPOP virtual network run unmodified high-throughput computing middleware (HTCondor) to enable large numbers of model simulations to be executed concurrently across the distributed computing resources. Third, a Web service interface allows end users to submit job requests to the system using client libraries that integrate with the R statistical computing environment.</Description>
		<PIName>Shava Smallen</PIName>
		<Organization>Pacific Rim Application and Grid Middleware Assembly (PRAGMA)</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Ecological and Environmental Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>51.2202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>102</ID>
		<Name>GRASP</Name>
		<Description>Atomic structure calculations  based on multiconfiguration Dirac–Hartree–Fock theory utilizing Grasp2k, a general-purpose relativistic atomic structure package.</Description>
		<PIName>Richard Irving</PIName>
		<Organization>University of Toledo</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f697s61oo78e</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>451</ID>
		<Name>GRScorrelation</Name>
		<Description>We calculate the autocorrelation merit factors for Golay-Shapiro-Rudin-like sequences and the crosscorrelation merit factors for pairs of such sequences. Each of the 2^n seed sequences of length n gives rise to an infinite family of sequences, and we have asymptotic formulas (see our preprint at arXiv: 1702.07697 [math.NT]) for the merit factors based on calculations involving only the seeds. The number of seeds grows exponentially, thus making this a project that is well-suited to distributed computing. We would like to extend Table 2 of our paper (minimum combined measure of autocorrelation and crosscorrelation, unconstrained search) to seeds of length 28. And we would like to extend Tables 1 and 3 of our paper (minimum autocorrelation and minimum combined measure among those sequences of minimum autocorrelation) to seeds of length 52, because we have a conjectue that something interesting may happen at length 52. We expect that the extension of T!
ables 1 and 3 will require about 130,000 runs, each of which would take about an hour each on a single thread of a typical workstation. And we expect that the extension of Table 2 will require about 45,000 runs taking about 45 minutes each in a similar situation.</Description>
		<PIName>Daniel J. Katz</PIName>
		<Organization>California State University, Northridge</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vfjpi4twqspj</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>181412983</ID>
		<Name>GSU_ARCTIC</Name>
		<Description>https://arctic.gsu.edu/</Description>
		<PIName>Suranga Edirisinghe</PIName>
		<Organization>Georgia State University</Organization>
		<Department>Advanced Research Computing Technology and Innovation Core</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ybl3snr9pbs1</InstitutionID>
		<FieldOfScienceID>11.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>637</ID>
		<Name>GSU_Wang</Name>
		<Description>Measuring Corporate Cybercrime Risk</Description>
		<PIName>David Maimon</PIName>
		<Organization>Georgia State University</Organization>
		<Department>Institute for Insight</Department>
		<FieldOfScience>Business</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ybl3snr9pbs1</InstitutionID>
		<FieldOfScienceID>52</FieldOfScienceID>
	</Project>
	<Project>
		<ID>344</ID>
		<Name>GTConvertHTC</Name>
		<Description>help GT researchers convert their existing projects into HTC workloads</Description>
		<PIName>Mehmet Belgin</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Advanced Research Computing</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>852770785</ID>
		<Name>GWU_Crandall</Name>
		<Description>Our study aims to elucidate the differences in the gut microbiome functional activity and metabolome in adult premenopausal women with distinctive fitness levels and BMIs (with obesity, w/o obesity). The specific aims are as follows -
Aim 1 - To examine the effects of acute aerobic exercise at 60-70% heart rate reserve (HRRmax) for 30 minutes bout on changes in the abundance of SCFA-producing bacteria and their functional downstream metabolic activity.
Aim 2 -  To examine the effects of acute aerobic exercise at 60-70% HRRmax 30-minute bout on changes in GM-released SCFA concentrations in stool and plasmatic metabolome.</Description>
		<PIName>Keith Crandall</PIName>
		<Organization>George Washington University</Organization>
		<Department>Department of Biostatistics and Bioinformatics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/67icxo2r0nw7</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>703</ID>
		<Name>GWU_OTSStaff</Name>
		<Description>The Columbian College Office of Technology Services (OTS) is the primary technology services provider for the Columbian College of Arts and Sciences.  OTS implements technology strategy, policies, and operational procedures in support of the College's instructional, research, and administrative functions.  Serving a total user population of 9,000 constituents spread across five campuses, OTS strives to provide fast, reliable, and efficient service. https://ots.columbian.gwu.edu/</Description>
		<PIName>Janis Nicholas</PIName>
		<Organization>George Washington University</Organization>
		<Department>Office of Technology Services</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/67icxo2r0nw7</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>792</ID>
		<Name>GWU_Orti</Name>
		<Description>Evolutionary biology of fishes. Application of genome-wide exon markers to infer fish phylogenies, based on target capture approaches and next-gen sequencing.</Description>
		<PIName>Guillermo Orti</PIName>
		<Organization>George Washington University</Organization>
		<Department>Department of Biological Sciences</Department>
		<FieldOfScience>Life Sciences. Other Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/67icxo2r0nw7</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>640</ID>
		<Name>GWU_TikidjiHamburyan</Name>
		<Description>We are interested in mechanisms of establishing connectivity in the brain during the critical pre- and postnatal periods. The main focus of this project is on non-linear dynamics in growing networks.</Description>
		<PIName>Ruben Tikidji-Hamburyan</PIName>
		<Organization>George Washington University</Organization>
		<Department>School of Medicine and Health Sciences</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/67icxo2r0nw7</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>438</ID>
		<Name>GanForAuto</Name>
		<Description>Test Case Generation For ADAS Validation Via Cycle GAN
Today’s automobile is equipped with a large amount of electronic circuits to achieve intelligent functions, such as collision avoidance, traffic sign detection, etc., for autonomous driving. To meet the safety standard, ensuring extremely small failure probability over all possible operation conditions is one of the critical tasks for an autonomous driving system. However, physically observing all these corner cases over a long time is almost impossible in practice. In this project, we use machine learning algorithms to efficiently generate corner cases that are not easy to observe.</Description>
		<PIName>Xin Li</PIName>
		<Organization>Duke University</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>590554354</ID>
		<Name>Gateway_DistribMedicalAI</Name>
		<Description>Developing a job submission template for common medical AI imaging applications.</Description>
		<PIName>Hieu Nguyen</PIName>
		<Organization>Rowan University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Medical Imaging</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oya34s2ysser</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>527473273</ID>
		<Name>GeneticsHittinger</Name>
		<Description>http://hittinger.genetics.wisc.edu</Description>
		<PIName>Chris Todd Hittinger</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Genomics &amp; Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>660989852</ID>
		<Name>GeneticsPool</Name>
		<Description>https://genetics.wisc.edu/staff/pool-john/</Description>
		<PIName>John Pool</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Genomics &amp; Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1306</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1930165944</ID>
		<Name>Genetics_Payseur</Name>
		<Description>https://payseur.genetics.wisc.edu/</Description>
		<PIName>Bret Payseur</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Genomics &amp; Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>484693377</ID>
		<Name>Genetics_Werling</Name>
		<Description>The Werling Lab in the Laboratory of Genetics at the University of Wisconsin-Madison is focused on understanding the roles of genetic variation and sex-differential biology on brain development and risk for neurodevelopmental conditions such as autism spectrum disorder.</Description>
		<PIName>Donna Werling</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Genetics</Department>
		<FieldOfScience>Genetics and Nucleic Acids</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>131</ID>
		<Name>Genie</Name>
		<Description>Generates Events for Neutrino Interaction Experiments(GENIE) is a universal object-oriented neutrino MC generator supported and developed by an international collaboration of scientists whose expertise covers a very broad range of neutrino physics aspects, both phenomenological and experimental. GENIE is currently being used by T2K, NOvA, MINERvA, MicroBooNE, ArgoNEUT, LAGUNA-LBNO, LBNE, INO, IceCUBE, NESSiE and others.</Description>
		<PIName>Gabriel Nathan Perdue</PIName>
		<Organization>Fermilab</Organization>
		<Department>Scientific Computing Simulation</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>161</ID>
		<Name>GenomicIntegration</Name>
		<Description>Integration of publicly available large-scale genomic data.</Description>
		<PIName>Casey Greene</PIName>
		<Organization>Dartmouth College</Organization>
		<Department>Genetics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ay2n55g6y1cq</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>341</ID>
		<Name>GeoTunnel</Name>
		<Description>Analyzing muon data to obtain information about the objects they traversed.</Description>
		<PIName>Elena Guardincerri</PIName>
		<Organization>Los Alamos National Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3r6zb1vwk63</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1326070552</ID>
		<Name>Georgetown_Joshi</Name>
		<Description>We investigate how biomolecular interactions determine whether misfolded proteins become pathological aggregates or functional biomaterials, bridging neurodegenerative disease mechanisms with bio-inspired materials design (Lab webpage: www.joshilab.org)</Description>
		<PIName>Priyanka Joshi</PIName>
		<Organization>Georgetown University</Organization>
		<Department>Georgetown University Medical Center</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/9s3b7k15z32k</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1504838294</ID>
		<Name>Geoscience_Zoet</Name>
		<Description>Understanding the physics of glacier motion through field observation, laboratory experiments, numerical modeling, and theoretical analysis</Description>
		<PIName>Lucas Zoet</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Geoscience</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0699</FieldOfScienceID>
	</Project>
	<Project>
		<ID>23</ID>
		<Name>GlassySystems</Name>
		<Description>Studies of static and dynamic properties of glassy systems.

See also: http://www.columbia.edu/cu/chemistry/groups/reichman/

The dynamics and static properties of glassy systems can be studied in great detail by simple model systems, either those on a lattice or those consisting of mixtures of spherical particles. In order to do that, one can use any many techniques generally under the umbrella of Monte Carlo Sampling or Molecular Dynamics. In order to get detailed properties, is is often advantageous or necessary to run a large number of independent simulations, and to calculate properties averaged over these simulations. It may also be necessary to study these systems with a range of parameter values, e.g. temperature or system size. Hence, this problem lends itself well to high throughput computing, at least for cases where the individual simulations comprising a workflow are not too long.</Description>
		<PIName>David Reichman</PIName>
		<Organization>Columbia University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>508</ID>
		<Name>GlobalDH</Name>
		<Description>Test a tool to deal with global data sets.</Description>
		<PIName>Kang Wang</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>INSTAAR</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>40.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>197274575</ID>
		<Name>GregsCookies</Name>
		<Description>Test project for the PATh team.</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>383</ID>
		<Name>Groundhog</Name>
		<Description>Define spatio-temporal High Gamma activity patterns in the human neocortex during waking, and compare them to the observed activity in preceding/subsequent sleeps to see whether specific waking patterns recur during sleep.</Description>
		<PIName>Eric Halgren</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>School of Medicine</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>651</ID>
		<Name>Guam_Bentlage</Name>
		<Description>Marine science bioinformatics - analyzing phylogenetic trees, blasting sequences, read mapping</Description>
		<PIName>Bastian Bentlage</PIName>
		<Organization>University of Guam</Organization>
		<Department>Marine Laboratory</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pe5ponomqp4t</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>463</ID>
		<Name>HASHA</Name>
		<Description>Program uses NCBI’s Entrez.efetch on the nucleotide database to take in large number of sequences and searches the sequences for palindromes ranging in size from 4 to 20 and appends the results to a list. The program then takes each palindrome and checks for its occurrence on the 11 genes of the influenza A virus’s and outputs every match of the palindrome with relevant sequence Information.</Description>
		<PIName>Brian Cheda</PIName>
		<Organization>Arcadia University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/c6ehbi2dyh8h</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>499</ID>
		<Name>HCBData</Name>
		<Description>The project aims to achieve explainable machine learning (ML) through the integration of structured semantic data with the inputs, outputs and hidden layers of deep learning systems. The proliferation of explicitly structured semantic data has occurred in parallel with the emergence of powerful ML algorithms, particularly deep neural networks (DNNs), whose internal layers encode information implicitly. This research attempts to bridge the gap between explicit, easy-to-understand semantic information and implicit, difficult-to-understand features of a deep learning system to achieve transparency and trust in an algorithm's reasoning across multiple layers.</Description>
		<PIName>Brad Minnery</PIName>
		<Organization>Wright State Research Institute</Organization>
		<Department>Wright State Research Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/thy4rviykeph</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>363</ID>
		<Name>HCCLocalSubmit</Name>
		<Description>Jobs from our clusters that flock to the OSG</Description>
		<PIName>Derek Weitzel</PIName>
		<Organization>University of Nebraska</Organization>
		<Department>Holland Computing Center</Department>
		<FieldOfScience>Community Grid</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>67</ID>
				<Name>HCC</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>11780412</ID>
		<Name>HCC_staff</Name>
		<Description>Cyberinfrastructure Research</Description>
		<PIName>Adam Caprez</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Holland Computing Center</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>64</ID>
		<Name>HL-LHC-TP</Name>
		<Description>Simulate hundreds of millions of high-energy proton proton collisions, which mimic the collisions expected at a potential High Luminosity LHC.  This simulated data will be used to assess the performance of potential CMS detector upgrades, for inclusion in a Technical Proposal.</Description>
		<PIName>Meenakshi Narain</PIName>
		<Organization>Brown University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0ytxfy0n4hol</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1146033826</ID>
		<Name>HMC_Castillo</Name>
		<Description>My group uses spectroscopy to understand intermolecular interactions; that is, the way two molecules “touch” one another. These interactions are of importance in understanding a wide range of chemically relevant processes, including solvation effects, molecular recognition, and molecular aggregation. To characterize these interactions, we record ground and excited state spectra in the gas phase. We then use quantum chemical calculations and computational simulations to understand our spectra.</Description>
		<PIName>Alicia Hernandez-Castillo</PIName>
		<Organization>Harvey Mudd College</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7dufyxnmcokx</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>691</ID>
		<Name>HPS</Name>
		<Description>Jefferson Lab's Heavy Photon Search project</Description>
		<PIName>Thomas Britton</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>421</ID>
		<Name>HRRRMining</Name>
		<Description>I have archived about 30TB (and growing) of output from NOAA's operational High Resolution Rapid Refresh model on an object storage archive system at Utah's Center for High Performance Computing. The challenge is to mine data from such a large data set. Open Science Grid may be a solution for processing this voluminous data set, if questions and data mining objectives can be broken into serial tasks.</Description>
		<PIName>Brian Blaylock</PIName>
		<Organization>University of Utah</Organization>
		<Department>Atmospheric Sciences</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iwlonrroeaal</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>67</ID>
		<Name>HTCC</Name>
		<Description>This project will be used for the OSG AHM HTC Challenge. It may also be the home of future challenges.</Description>
		<PIName>Rob Quick</PIName>
		<Organization>Indiana University</Organization>
		<Department>Research Technologies</Department>
		<FieldOfScience>Community Grid</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1789055683</ID>
		<Name>Hamilton_Chen</Name>
		<Description>Research focuses on protein structure prediction and termination with deep learning.</Description>
		<PIName>Xiao Chen</PIName>
		<Organization>Hamilton College</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0rovxfragej9</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1646313207</ID>
		<Name>Harrisburg_Bellur</Name>
		<Description>This research proposes a Lightweight Modular Real-Time Weapon Detection Framework to improve weapon detection in crowded, dynamic environments by combining contextual frame filtering, people detection, and small object detection using advanced deep learning models. The framework focuses on reducing computational load while maintaining high detection precision, leveraging lightweight CNNs and Vision Transformers optimized for real-time edge deployment. By addressing challenges such as occlusion, crowd density, and small object detection, the study aims to significantly advance AI-driven surveillance systems for enhanced public safety.</Description>
		<PIName>Srikar Bellur</PIName>
		<Organization>Harrisburg University of Science and Technology</Organization>
		<Department>Data Sciences</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6l8t5d2hv9ay</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>468952270</ID>
		<Name>Harrisburg_Jordan</Name>
		<Description>The research is exploring the use of text classification algorithms to identify and mitigate inappropriate behavior in Twitch micro-communities, with a focus on developing more nuanced and context-aware moderation tools. By combining linguistic analysis with Social Identity theory, the study aims to create dynamic, community specific language models that can adapt to the unique norms and linguistic patterns of different online groups.</Description>
		<PIName>Kayden Jordan</PIName>
		<Organization>Harrisburg University of Science and Technology</Organization>
		<Department>Data Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6l8t5d2hv9ay</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1692514246</ID>
		<Name>Harrisburg_Syal</Name>
		<Description>Working on small projects and showcasing OSpool and helping reachers and faculty at HU.</Description>
		<PIName>Aditya Syal</PIName>
		<Organization>Harrisburg University of Science and Technology</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6l8t5d2hv9ay</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1943110303</ID>
		<Name>Harvard_Aganj</Name>
		<Description>https://reporter.nih.gov/project-details/11026499
Using magnetic resonance imaging techniques, we will define both vulnerable and resilient brain networks involved in aging, Alzheimer’s disease, and Parkinson’s disease, and uncover new imaging biomarkers to improve diagnosis and treatment. Normal aging, as well as occurrence of neurodegenerative diseases, can be better understood by mapping complex structural and functional brain networks through which information flows, and via the discovery of important biomarkers that shed light on aging and neurodegenerative disease.</Description>
		<PIName>Iman Aganj</PIName>
		<Organization>Harvard University</Organization>
		<Department>Radiology</Department>
		<FieldOfScience>Biomedical research</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>394949170</ID>
		<Name>Harvard_Delgado</Name>
		<Description>The Tau Air-shower Mountain Based Observatory, TAMBO, is a valley-based experiment dedicated to detecting Earth-skimming ultra-high-energy astrophysical tau neutrinos. TAMBO functions by observing extensive air showers from tau leptons, produced by astrophysical tau neutrinos, that have sufficient energy to emerge from rock and decay in air. Simulating these extensive air showers is critical to optimizing our experiment and requires significant compute time and resources. https://arxiv.org/abs/2507.08070.</Description>
		<PIName>Carlos Delgado</PIName>
		<Organization>Harvard University</Organization>
		<Department>Physics Department </Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>40.0299</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1470146509</ID>
		<Name>Harvard_Fox</Name>
		<Description>Computational analysis of functional neuroimaging data to identify brain circuits and potential therapeutic stimulation targets.</Description>
		<PIName>Michael Fox</PIName>
		<Organization>Harvard University</Organization>
		<Department>Center for Brain Circuit Therapeutics / Neurology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>26.0102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1860337492</ID>
		<Name>Harvard_Iacus</Name>
		<Description>The Geography of Human Flourishing research project aims to analyze Harvard’s archive of 10 billion geolocated tweets (spanning from 2010 to mid-2023) through the lens of the six dimensions of human flourishing defined by the Global Flourishing Study (GFS) [Happiness and life satisfaction; Mental and physical health; Meaning and purpose; Character and virtue; Close social relationships; Material and financial stability].
Using fine-tuned large language models (LLMs), the project extracts 46 indicators aligned with these six domains, generating high-resolution spatio-temporal datasets. The initiative also develops interactive tools to visualize and analyze these patterns across space and time.</Description>
		<PIName>Stefano Iacus</PIName>
		<Organization>Harvard University</Organization>
		<Department>Institute for Quantitative Social Science</Department>
		<FieldOfScience>Political Science and Government, General</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>45.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2047719543</ID>
		<Name>Harvard_Lin</Name>
		<Description>Currently we are lacking objective measures of chronic pain. We can ask for it, but cannot accurately measure it. This inevitably leads to heterogeneity in study populations. We try to use MRI to define objective biomarkers of the pain experience.</Description>
		<PIName>Alexander Lin</PIName>
		<Organization>Harvard University</Organization>
		<Department>Department of Radiology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>879177872</ID>
		<Name>Harvard_Weerasekera</Name>
		<Description>Processing of MRI structural images of 20 cannabis smokers and one 22 controls to see brain structural differences.</Description>
		<PIName>Akila Weerasekera</PIName>
		<Organization>Harvard University</Organization>
		<Department>McLean Imaging Center</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>26.1502</FieldOfScienceID>
	</Project>
	<Project>
		<ID>929615245</ID>
		<Name>Harvard_Wofsy</Name>
		<Description>The goal is to measure methane emissions from major source regions in the US, in order to facilitate reduction of these emissions.</Description>
		<PIName>Steven Wofsy</PIName>
		<Organization>Harvard University</Organization>
		<Department>Department of Earth and Planetary Sciences</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>40.04</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1280876331</ID>
		<Name>Hawaii_Barnes</Name>
		<Description>Mergers transform spiral galaxies into bizarre objects which eventually settle down as elliptical galaxies. We observe merging galaxies in different stages of this billion-year process. I use computers to simulate galactic collisions, reproducing the shapes of galaxy mergers, to understand how mergers transform the galaxies around us.

https://home.ifa.hawaii.edu/users/barnes/</Description>
		<PIName>Joshua Barnes</PIName>
		<Organization>University of Hawaiʻi at Mānoa</Organization>
		<Department>Institute for Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>271007651</ID>
		<Name>Hawaii_Dodds</Name>
		<Description>We experimentally develop efficient means of distribution to federated national cyberinfrastructure (CI) platforms of Hawaii astronomy big data sets. We will demonstrate use of these data sets with OSG and other CI platforms using SOTA AI/ML research methods applied to astronomy and astrophysics research questions. We hope to publish a collection of canonical ML models that work efficiently with these astronomy big data sets utilizing national, regional and campus CI resources.</Description>
		<PIName>Stanley Dodds</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Institute for Astronomy</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>580</ID>
		<Name>Hawaii_Doetinchem</Name>
		<Description>This project intends to simulate the production of anti-helium-3 and anti-helium-4 in proton-proton collisions at different cosmic-ray energies. This is done by using the EPOS-LHC hadronic model and applying an energy-dependent coalescence afterburner.</Description>
		<PIName>Philip von Doetinchem</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>603</ID>
		<Name>Hawaii_Gorham</Name>
		<Description>Monte Carlo simulations for The Antarctic Impulsive Transient Antenna (ANITA) project. ANITA is a NASA-funded long-duration stratospheric balloon experiment designed to detect ultra-high energy neutrinos and cosmic rays through wideband radio emission from particle showers in the ice and atmosphere.</Description>
		<PIName>Peter W. Gorham</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Astrophysics</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1298427260</ID>
		<Name>Hawaii_Oleson</Name>
		<Description>This research is seeking to building and maintaining natural capital accounts in Hawaiʻi. We compile UN SEEA EA ecosystem extent and condition accounts, and study ecosystem services such as potential supply of groundwater (recharge), and cultural services. https://olesonlab.org/</Description>
		<PIName>Kristen Oleson</PIName>
		<Organization>University of Hawaiʻi at Mānoa</Organization>
		<Department>Natural Resources &amp; Environmental Management</Department>
		<FieldOfScience>Multidisciplinary</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>03.0204</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1200788188</ID>
		<Name>Hawaii_Sun</Name>
		<Description>We study solar and stellar physical processes driven by magnetic field dynamics with various numerical models and observational data analysis. We are also involved in understanding the cyclic variation of the large-scale heliospheric magnetic field.</Description>
		<PIName>Xudong Sun</PIName>
		<Organization>University of Hawaiʻi at Mānoa</Organization>
		<Department>Institute of Astronomy</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>358</ID>
		<Name>HealthInformatics</Name>
		<Description>My research focuses on detecting patterns in physiological data of patients in an Intensive Care Unit setting, with the aim of constructing an early warning system.  The approach I am taking includes machine learning algorithms such as Artificial Neural Networks, Hidden Markov Models, and Support Vector Machines.  I presently have limited computational resources for which to conduct this research.  The data I am using for training and validation is both static and time based information on 32,000 patients and includes approximately 30GB of raw data.  Additionally I have extremely high resolution data on 2,600 patient.  The search-space is prohibitively large for a single computer and even some of the smaller clusters.

I am employing an optimization methodology which allows for a differential evolution approach to incrementally improve a structurally adaptive model.   The methodology allows for parallel programming which is of course a necessity for distributed computing.</Description>
		<PIName>Karl Jablonowski</PIName>
		<Organization>University of Washington</Organization>
		<Department>Biomedical and Health Informatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>77341524</ID>
		<Name>HepSim</Name>
		<Description>HepSim is a public repository with Monte Carlo simulations for particle-collision experiments. It contains predictions from leading-order (LO) parton shower models, next-to-leading order (NLO) and NLO with matched parton showers. It also includes Monte Carlo events after fast ("parametric") and full (Geant4) detector simulations and event reconstruction.</Description>
		<PIName>Robert Gardner</PIName>
		<Organization>University of Chicago</Organization>
		<Department>US ATLAS</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>370645201</ID>
		<Name>Howard_Parry</Name>
		<Description>The thrust of this project is to obtain a functional, structural and mechanistic understanding of iron transport and systemwide homeostasis.</Description>
		<PIName>Christian Parry</PIName>
		<Organization>Howard University</Organization>
		<Department>Microbiology</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6flk2zw30csu</InstitutionID>
		<FieldOfScienceID>26.0203</FieldOfScienceID>
	</Project>
	<Project>
		<ID>145</ID>
		<Name>HypergraphDegreeSeq</Name>
		<Description>A degree sequence of a hypergraph is a list of numbers that gives the total number of edges each vertex is in and multiple hypergraphs can have the same degree sequence.  I'm trying to determine a minimal set of moves that connects all of the realizations.  I need to use parallel programming as there are many degree sequences to investigate.</Description>
		<PIName>Sarah Lynne Behrens</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>67</ID>
				<Name>HCC</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1208637247</ID>
		<Name>IAState_Huang</Name>
		<Description>Development of algorithms and software for bioinformatics.

https://faculty.sites.iastate.edu/xqhuang/</Description>
		<PIName>Xiaoqiu Huang</PIName>
		<Organization>Iowa State University</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wbwnw037cybm</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>761</ID>
		<Name>IAState_ITStaff</Name>
		<Description>Test accounts for Research IT staff at Iowa State</Description>
		<PIName>James Coyle</PIName>
		<Organization>Iowa State University</Organization>
		<Department>High Performance Computing</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wbwnw037cybm</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1714759050</ID>
		<Name>IAState_Iadecola</Name>
		<Description>Structure and nonequilibrium dynamics of disordered quantum many-body systems.</Description>
		<PIName>Thomas Iadecola</PIName>
		<Organization>Iowa State University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wbwnw037cybm</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2018291549</ID>
		<Name>IAState_Islam</Name>
		<Description>Research is focused on ultrasonic Nondestructive Evaluation (NDE) techniques to characterize microstructure of materials.</Description>
		<PIName>Showmic Islam</PIName>
		<Organization>Iowa State University</Organization>
		<Department>Center for Nondestructive Evaluation</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wbwnw037cybm</InstitutionID>
		<FieldOfScienceID>14.1901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>972815882</ID>
		<Name>IATTC_Bi</Name>
		<Description>This project develops spatiotemporal statistical models to estimate catch composition (species and size composition) in the eastern Pacific purse-seine fishery using observational datasets. The analyses support operational tuna stock assessments conducted by the Inter-American Tropical Tuna Commission (IATTC). https://www.iattc.org/en-US/research/program/Stock-program</Description>
		<PIName>Rujia Bi</PIName>
		<Organization>Inter-American Tropical Tuna Commission</Organization>
		<Department>Stock Assessment Program</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hda01dk6u2ee</InstitutionID>
		<FieldOfScienceID>03.0301</FieldOfScienceID>
	</Project>
	<Project>
		<ID>312</ID>
		<Name>IBN130001-Plus</Name>
		<Description>Child project of TG-IBN130001</Description>
		<PIName>Donald Krieger</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Neurosurgery</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>593073645</ID>
		<Name>IGWN_Staff</Name>
		<Description>IGWN staff</Description>
		<PIName>James Clark</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Gravitational Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>418</ID>
		<Name>IITPROSPECT</Name>
		<Description>Monte Carlo generation and data analysis for the PROSPECT experiment.</Description>
		<PIName>Bryce Littlejohn</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>796</ID>
		<Name>IIT_Cheng</Name>
		<Description>Developing high order invariant and equivariant graph neural networks for solving problems in various domains</Description>
		<PIName>Maggie Cheng</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>College of Computing</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1092373302</ID>
		<Name>IIT_Kang</Name>
		<Description>Create new statistical learning methodologies and machine learning algorithms</Description>
		<PIName>Lulu Kang</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Applied Mathematics</Department>
		<FieldOfScience>Data Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1478585217</ID>
		<Name>IIT_Li</Name>
		<Description>Develop Lagrangian particle methods for moving interface problems in fluid mechanics and materials science; Develop Physical Informed Neural network (PINN) for Green function-based methods.
</Description>
		<PIName>Shuwang Li</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Applied Mathematics</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>387784568</ID>
		<Name>IIT_Minh</Name>
		<Description>Computational scientists who focus on chemical biology, the interactions between  small molecules and biological macromolecules. We develop and apply new methods that may be helpful for structure-based drug design.
</Description>
		<PIName>David Minh</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>362557967</ID>
		<Name>IIT_Rosa</Name>
		<Description>Generating trajectories in high-dimensional parameter spaces using numerical continuation methods.  The software repo is available here: https://github.com/nr-codes/BipedalGaitGeneration.</Description>
		<PIName>Nelson Rosa</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Mechanical, Materials, and Aerospace Engineering Deptartment</Department>
		<FieldOfScience>Mechanical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>14.1901b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>312244166</ID>
		<Name>IIT_Sultana</Name>
		<Description>Large-scale analysis of network data, as part of the Patchwork project (https://packetfilters.cs.iit.edu/patchwork/)</Description>
		<PIName>Nik Sultana</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>339717243</ID>
		<Name>IIT_Wereszczynski</Name>
		<Description>https://wereszczynskilab.org/research/</Description>
		<PIName>Jeff Wereszczynski</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>334465912</ID>
		<Name>IIT_Zhong</Name>
		<Description>We conduct research on scientific machine learning, especially related to how machine learning can be used to learn and understand dynamical systems from observation data.  Right now, we are developing models to understand synchronization, i.e. how oscillators can be put in sync with spatial patterns.</Description>
		<PIName>Ming Zhong</PIName>
		<Organization>Illinois Institute of Technology</Organization>
		<Department>Appleid Mathematics</Department>
		<FieldOfScience>Appleid Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3jn3w1ccwxwd</InstitutionID>
		<FieldOfScienceID>27.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>560</ID>
		<Name>IRIS-CI</Name>
		<Description>Integrity Introspection for Scientific Workflows</Description>
		<PIName>Anirban Mandal</PIName>
		<Organization>University of North Carolina, Chapel Hill</Organization>
		<Department></Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>336</ID>
		<Name>IRRI</Name>
		<Description>Collaboration with the Rice3k IRRI project</Description>
		<PIName>Mats Rynge</PIName>
		<Organization>University of Southern California</Organization>
		<Department>ISI</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>9</ID>
				<Name>ISI</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2002238008</ID>
		<Name>IU-PTI_Airavata</Name>
		<Description>Project for Airavata gateway deployments</Description>
		<PIName>Rob Quick</PIName>
		<Organization>Indiana University</Organization>
		<Department>Pervasive Technology Institute</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>762</ID>
		<Name>IU_Tang</Name>
		<Description>Exploring high-throughput mass spec analysis</Description>
		<PIName>Haixu Tang</PIName>
		<Organization>Indiana University</Organization>
		<Department>Informatics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>371</ID>
		<Name>IVSelection</Name>
		<Description>We could like to preform instruments selection in the IV model by Machine Learning technique, and estimated the structure parameters by GMM method.</Description>
		<PIName>Hao Xu</PIName>
		<Organization>University of California, Riverside</Organization>
		<Department>Econimics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zy99b9jjoqpb</InstitutionID>
		<FieldOfScienceID>45.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>88</ID>
		<Name>IceCube</Name>
		<Description>IceCube is the world's largest neutrino detector. It is located at the South Pole and  includes a cubic kilometer
of instrumented ice.  IceCube searches for neutrinos from the most violent astrophysical sources: events like exploding stars, gamma
ray bursts, and cataclysmic phenomena involving black holes and neutron stars. The IceCube telescope is a powerful tool to search for
dark matter, and could reveal the new physical processes associated with the enigmatic origin of the highest energy particles in
nature. In addition, exploring the background of neutrinos produced in the atmosphere, IceCube studies the neutrinos themselves; their
energies far exceed those produced by accelerator beams.</Description>
		<PIName>Francis Halzen</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1942328054</ID>
		<Name>IceCube_2022_Halzen</Name>
		<Description>IceCube is the world's largest neutrino detector. It is located at the South Pole and  includes a cubic kilometer of instrumented ice.  IceCube searches for neutrinos from the most violent astrophysical sources: events like exploding stars, gamma ray bursts, and cataclysmic phenomena involving black holes and neutron stars. The IceCube telescope is a powerful tool to search for dark matter, and could reveal the new physical processes associated with the enigmatic origin of the highest energy particles in nature. In addition, exploring the background of neutrinos produced in the atmosphere, IceCube studies the neutrinos themselves; their energies far exceed those produced by accelerator beams.</Description>
		<PIName>Francis Halzen</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>21</ID>
				<Name>PATh Facility</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>37035824</ID>
		<Name>Illinois_2022_Tsokaros</Name>
		<Description>Research includes general and numerical relativity, astrophysics, cosmology, and alternative theories of gravity.</Description>
		<PIName>Antonios Tsokaros</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>21</ID>
				<Name>PATh Facility</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>629646829</ID>
		<Name>Illinois_Goyal</Name>
		<Description>Diverse set of projects focusing on vision models/LLMs primarily falling under the umbrella terms of "machine unlearning" and "human-AI alignment"</Description>
		<PIName>Agam Goyal</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>505754276</ID>
		<Name>Illinois_2024_Gammie</Name>
		<Description>This project involves black holes, star and planet formation, and accretion physics. It includes computer simulation of astrophysical plasmas, particularly studies of hot plasmas accreting onto black holes</Description>
		<PIName>Charles Gammie</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2140865588</ID>
		<Name>Illinois_HTC</Name>
		<Description>General research workloads on the UIllinois campuscluster APs</Description>
		<PIName>Christopher Heller</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>NCSA</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1146327518</ID>
		<Name>Illinois_Jackson</Name>
		<Description>Electronic Structure Model Using Coarse-Grained Representations</Description>
		<PIName>Nicholas Jackson</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>163654811</ID>
		<Name>Illinois_Park</Name>
		<Description>My research broadly focuses on (a) causal inference under interference and non-i.i.d. settings, (b) causal inference under unmeasured confounding, and (c) optimal treatment regimes and policy learning. A common theme in my research is to use non/semiparametric theory and optimization methods to develop efficient and robust estimators of causal quantities in (a)-(c). Website: https://www.chanpark.net/</Description>
		<PIName>Chan Park</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1623471359</ID>
		<Name>Illinois_Petravick</Name>
		<Description>The CMB-S4 project is prototyping processing and data flow on the FABRIC testbed https://portal.fabric-testbed.net/.  We are studying the use of HTCondor on FABRIC VM nodes in scenarios where data would arrive over high speed networks.</Description>
		<PIName>Donald Petravick</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>National Center for Supercomputing Applications (NCSA)</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>831</ID>
		<Name>Illinois_Vieira</Name>
		<Description>The Observational Cosmology Laboratory (ObsCos) work explores the early universe through the echos of the big bang, known as the Cosmic Microwave Background (CMB). The ObsCos lab is developing cryogenic optics for next-generation CMB experiments. This R&amp;D exposes students to clean-room tasks, software simulation, electronics, data acquisition and involvement in a large scale scientific research project.</Description>
		<PIName>Joaquin Vieira</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>395</ID>
		<Name>IngaCFMID</Name>
		<Description>We study how interactions between plants and their insect herbivores lead to the evolution of plant defenses, including plant's chemical defenses. In order to identify some of the many unknown compounds we have isolated via LC-MS from the tropical tree genus Inga (Fabaceae), we use in silico fragmentation to predict the ms/ms spectra for a given chemical structure using Competitive Fragmentation Modeling for Metabolite Identification (CFM-ID) (http://cfmid.wishartlab.com). This allows us to match observed ms/ms spectra with a theoretical library of known and predicted chemical structures.</Description>
		<PIName>Thomas A. Kursar</PIName>
		<Organization>University of Utah</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iwlonrroeaal</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>634</ID>
		<Name>Internet2</Name>
		<Description>Cloud and OSG Integration</Description>
		<PIName>Sara Jeanes</PIName>
		<Organization>Internet2</Organization>
		<Department>other</Department>
		<FieldOfScience>Infrastructure Development</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rdbgla0ef33b</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1407829580</ID>
		<Name>Internet2_Brunson</Name>
		<Description>Research Engagement at Internet2 works to enhance global research computing and data capability (RCD), capacity, and resources to better support and advance research activity. We do this by providing consulting and training, facilitating a professional community to develop tools and best practices, and supporting RCD professionals as research partners. https://internet2.edu/community/research-engagement/</Description>
		<PIName>Dana Brunson</PIName>
		<Organization>Internet2</Organization>
		<Department>Research Engagement</Department>
		<FieldOfScience>Multidisciplinary</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rdbgla0ef33b</InstitutionID>
		<FieldOfScienceID>30.9999f</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2135428230</ID>
		<Name>Internet2_MS-CC</Name>
		<Description>The Minority Serving - Cyberinfrastructure Consortium envisions a transformational partnership to promote advanced cyberinfrastructure capabilities on HBCU, HSI, TCU, and MSI campuses, with data; research computing; teaching; curriculum development and implementation; collaboration; and capacity-building connections among institutions.</Description>
		<PIName>Ana Hunsinger</PIName>
		<Organization>Internet2</Organization>
		<Department>MS-CC</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rdbgla0ef33b</InstitutionID>
		<FieldOfScienceID>11.0901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>655</ID>
		<Name>JAM</Name>
		<Description>Jefferson Lab's Angular Momentum collaboration</Description>
		<PIName>Thomas Britton</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1645621430</ID>
		<Name>JHUAPL_Clement</Name>
		<Description>The formation path way for the compact habitable zone planets system TOI-700 composed of 4 planets is still a mystery. We use N-body simulations with Mercury hybrid integrator to explore how this system was formed. Specifically, we explore the possibility that the TOI-700 system started as a chain of planets in mean-motion-resonance, and was then destabilized after the gas disk dissipated.</Description>
		<PIName>Matthew Clement</PIName>
		<Organization>Johns Hopkins University Applied Physics Laboratory</Organization>
		<Department>Physics &amp; Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bifky2z4c98h</InstitutionID>
		<FieldOfScienceID>40.0203</FieldOfScienceID>
	</Project>
	<Project>
		<ID>742</ID>
		<Name>JHU_Howard</Name>
		<Description>The goal of this project is to support and expand analysis of open source data for computational mathematics, data science, and operations research.</Description>
		<PIName>James P. Howard, II</PIName>
		<Organization>Johns Hopkins University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3fml5tx2uhe0</InstitutionID>
		<FieldOfScienceID>27.0301</FieldOfScienceID>
	</Project>
	<Project>
		<ID>244568524</ID>
		<Name>JHU_Zhang</Name>
		<Description>Condensed matter theory with a focus on strongly correlated physics.</Description>
		<PIName>Yahui Zhang</PIName>
		<Organization>Johns Hopkins University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3fml5tx2uhe0</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>798745333</ID>
		<Name>JLAB-TEST</Name>
		<Description>Jefferson Lab's test experiment</Description>
		<PIName>Kurt Strosahl</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>620</ID>
		<Name>JLAB.EIC</Name>
		<Description>Jefferson Lab's EIC project</Description>
		<PIName>Thomas Britton</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>808</ID>
		<Name>JLabMOLLER</Name>
		<Description>Jefferson Lab's MOLLER experiment</Description>
		<PIName>Wouter Deconinck</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1036901538</ID>
		<Name>JSU_Research</Name>
		<Description>Project for Jackson State University researchers.</Description>
		<PIName>Michael Robinson</PIName>
		<Organization>Jackson State University</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q8m8imsihb9c</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2079313771</ID>
		<Name>JacksonLab_Awe</Name>
		<Description>This study aims to develop a reusable pipeline to screen for IEMs using genomic data.</Description>
		<PIName>Olaitan Awe</PIName>
		<Organization>Jackson Laboratory for Genomic Medicine</Organization>
		<Department>Computational Research Facilitation</Department>
		<FieldOfScience>Bioengineering &amp; Biomedical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gf9d5xlhbmrh</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1047203018</ID>
		<Name>JacksonState_Talchabhadel</Name>
		<Description>research focuses on the interconnected impacts of climate change, flooding, and heatwaves. We employ both physically-based and data-driven models to analyze these phenomena. Our physically-based approach utilizes advanced climate and hydrological simulations to project future scenarios, while our data-driven methodology leverages machine learning and statistical techniques to identify patterns in large-scale climate datasets.</Description>
		<PIName>Rocky Talchabhadel</PIName>
		<Organization>Jackson State University</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q8m8imsihb9c</InstitutionID>
		<FieldOfScienceID>14.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>408</ID>
		<Name>JediNetworks</Name>
		<Description>Training recurrent neural nets on various tasks; discretizing the dynamics of the networks and observing changes in network stability, performance and topology.</Description>
		<PIName>Bradley Voytek</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Neuroscience</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>412</ID>
		<Name>KORDrugdiscov</Name>
		<Description>It has been shown that deregulation of the Kappa Opioid Receptor (KOR) can contribute to drug abuse and other psychiatric disorders. Therefore, KOR agonists/antagonists have become a target for the development of pharmacotherapies for the treatment of addiction and other CNS disorders. Unfortunately, few chemical scaffolds have been shown to bind selectively to the KOR. Through the use of computational methods, we will screen a variety of chemical scaffolds to see how well they bind to the active pocket of the KOR and Mu Opioid Receptor. From these results, we will identify targets with high binding affinity to Kappa and low binding affinity to Mu. The identified compounds will then be screened for in vitro binding affinity to identify novel KOR selective ligands.</Description>
		<PIName>David Toth</PIName>
		<Organization>Centre College</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/apzl1q10g59m</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1413245467</ID>
		<Name>KOTO</Name>
		<Description>KOTO Collaboration OSG project on ap23</Description>
		<PIName>Yau Wah</PIName>
		<Organization>The University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>749</ID>
		<Name>KSU_CIS625</Name>
		<Description>KSU CIS625 Concurrent Software Systems</Description>
		<PIName>Daniel Andresen</PIName>
		<Organization>Kansas State University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kxvagjjgn71t</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1329691806</ID>
		<Name>KSU_Comer</Name>
		<Description>We use molecular simulation to better understand biological and synthetic nanoscale systems and interactions between them.</Description>
		<PIName>Jeff Comer</PIName>
		<Organization>Kansas State University</Organization>
		<Department>Department of Anatomy and Physiology</Department>
		<FieldOfScience>Health Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kxvagjjgn71t</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>584</ID>
		<Name>KSU_Li</Name>
		<Description>Virtual screening of compound library using AutoDock Vina for the discovery of drug/inhibitor of NTMT1</Description>
		<PIName>Ping Li</PIName>
		<Organization>Kansas State University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kxvagjjgn71t</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>827</ID>
		<Name>KSU_Ng</Name>
		<Description>Structure-based drug discovery for cancer and immunology; computational structural biology and chemistry; protein photonics for imaging.</Description>
		<PIName>Ho Leung Ng</PIName>
		<Organization>Kansas State University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kxvagjjgn71t</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>663</ID>
		<Name>KSU_Staff</Name>
		<Description>KSU Research Computing Staff</Description>
		<PIName>Dave Turner</PIName>
		<Organization>Kansas State University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Advanced Scientific Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kxvagjjgn71t</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1377710926</ID>
		<Name>KSU_Thumm</Name>
		<Description>Theoretical studies on the time-resolved dissociative ionization of triatomic molecules (currently CO2) in ultrashort laser pulses</Description>
		<PIName>Uwe Thumm</PIName>
		<Organization>Kansas State University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Atomic Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kxvagjjgn71t</InstitutionID>
		<FieldOfScienceID>40.0802</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1829361616</ID>
		<Name>Kennesaw_RC</Name>
		<Description>Facilitation/Consultation support for faculty with computing and data requirements at Kennesaw State</Description>
		<PIName>Ramazan Aygun</PIName>
		<Organization>Kennesaw State University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ergs0rt3q1i6</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>746</ID>
		<Name>KentState_Strickland</Name>
		<Description>Non-equilibrium dynamics of the quark-gluon plasma</Description>
		<PIName>Michael Strickland</PIName>
		<Organization>Kent State University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2iujc1axzu6d</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>322524050</ID>
		<Name>KentState_Thomas</Name>
		<Description>Exploring OSG for local access point and compute element</Description>
		<PIName>Philip Thomas</PIName>
		<Organization>Kent State University</Organization>
		<Department>Research Support Services</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2iujc1axzu6d</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>155</ID>
		<Name>KickstarterDataAnalysis</Name>
		<Description>Project Description: Over the past five years, there has been a boom in technology startups that continues to attract more and more talent. While everyone starts with a million-dollar idea, only a few manage to transfer into real innovations and impact our lives. What makes those ideas successful? Can you imagine an app that tells you how innovative your idea is? This project will take a computational approach to the understanding of innovation and develop a machinery to learn from real data to evaluate the creativity of new ideas.
Innovation is a broad topic, constantly discussed in business, economics, sociology, etc. It is such a complex phenomenon that there is no thorough theory about it. Here we will take a combinatorial perspective: an idea is a combination of existing and new knowledge. Hence, the goal is to understand why certain combinations are more interesting than others. Specifically, the first step is to map out our idea space with data from kickstarter, US Patents, and possibly other knowledge databases. The second step is to find interesting patterns, associations and dynamics in this map of knowledge. And finally computational methods will be developed to evaluate the fitness of any idea in a given environment.</Description>
		<PIName>Feng Bill Shi</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>27.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>65</ID>
		<Name>KnowledgeLab</Name>
		<Description>Knowledge Lab / CI</Description>
		<PIName>James Evans</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Multidisciplinary</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>22</ID>
		<Name>KnowledgeSys</Name>
		<Description>In educational assessment, several questions must be answered when constructing a test, such as “How many items are necessary for adequate knowledge measurement precision?”, “How many field-test students are needed to adequately calibrate model parameters?”, or “Which computerized adaptive testing (CAT) algorithm performs best?” For complex non-linear models, these questions are typically approached by simulation: Model parameters are calibrated (as if unknown) from simulated student item responses, or the emergent properties of particular CAT algorithms are investigated with a large number of simulated test takers. Since the design space grows quickly, many simulations are necessary to understand general trends.

Match-for-OSG:

Simulations throughout the test design space can be run independently, requiring little coordination between cores. Computations generally do not have high memory requirements or unusual library/code dependencies, and computations can be recovered from checkpoints easily. The large number of simulations suggests parallel computing, but the independence allows an asynchronous, distributed environment, such as OSG.</Description>
		<PIName>Michael J. Culbertson</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Educational Psychology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>42.2806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>588</ID>
		<Name>KoBIV</Name>
		<Description>Bayesian Instrumental Variable Regression</Description>
		<PIName>Stanley Iat-Meng KO</PIName>
		<Organization>University of Macau</Organization>
		<Department>Finance</Department>
		<FieldOfScience>Finance</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/db53o5sfgkhl</InstitutionID>
		<FieldOfScienceID>52</FieldOfScienceID>
	</Project>
	<Project>
		<ID>734</ID>
		<Name>LANL_Chennupati</Name>
		<Description>Training and examining machine learning models</Description>
		<PIName>Gopinath Chennupati</PIName>
		<Organization>Los Alamos National Lab</Organization>
		<Department>Los Alamos National Laboratory</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3r6zb1vwk63</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>477</ID>
		<Name>LArSoft</Name>
		<Description>The Liquid Argon Software (LArSoft) Collaboration develops and supports a shared base of physics software across Liquid Argon (LAr) Time Projection Chamber (TPC) experiments.</Description>
		<PIName>Erica Snider</PIName>
		<Organization>Fermilab</Organization>
		<Department>Scientific Computing Division</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>189400657</ID>
		<Name>LBNL_Jensen</Name>
		<Description>Spectral reconstruction of laser-driven secondary light sources</Description>
		<PIName>Kyle Jensen</PIName>
		<Organization>Lawrence Berkeley National Laboratory</Organization>
		<Department>ATAP, BELLA Center</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bvf12qyqplv6</InstitutionID>
		<FieldOfScienceID>40.0807</FieldOfScienceID>
	</Project>
	<Project>
		<ID>670</ID>
		<Name>LEARN_CITeam</Name>
		<Description>CI Team for the Lonestar Education and Research Network (LEARN) including CTO staff. http://www.tx-learn.org/</Description>
		<PIName>Akbar Kara</PIName>
		<Organization>Lonestar Education and Research Network</Organization>
		<Department>CTOStaff and Cyberinfrastructure Team</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wd82n7t2q410</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>459</ID>
		<Name>LGAMUT</Name>
		<Description>Simulations for developing a kernel based statistical methodology.</Description>
		<PIName>Debashis Ghosh</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>Biostatistics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>119</ID>
		<Name>LIGO</Name>
		<Description>Gravitational Wave Astronomy</Description>
		<PIName>Peter F. Couvares</PIName>
		<Organization>International Gravitational-Wave Observatory Network (IGWN)</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Gravitational Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d5uszq7419m3</InstitutionID>
		<FieldOfScienceID>40.0899</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1727907094</ID>
		<Name>LIGO_GstLAL</Name>
		<Description>LIGO collaboration members contributing to the GstLAL package</Description>
		<PIName>Chad Hanna</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>LIGO</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1910293833</ID>
		<Name>LIGO_Orientation</Name>
		<Description>Orientation group for LIGO</Description>
		<PIName>Peter F. Couvares</PIName>
		<Organization>LIGO Scientific Collaboration</Organization>
		<Department>International Gravitational-Wave Observatory Network (IGWN)</Department>
		<FieldOfScience>Gravitational Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d5uszq7419m3</InstitutionID>
		<FieldOfScienceID>40.0299</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1124125707</ID>
		<Name>LLNL_Sochat</Name>
		<Description>Developer tooling, including environments, apps, and workflows.</Description>
		<PIName>Vanessa Sochat</PIName>
		<Organization>Lawrence Livermore National Laboratory</Organization>
		<Department>Livermore Computing (lc)</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p4yzz1wxq2g3</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>638</ID>
		<Name>LSMSA_Burkman</Name>
		<Description>Solving optimization problems via genetic algorithms</Description>
		<PIName>John Bradford Burkman</PIName>
		<Organization>Louisiana School for Math, Science, and the Arts</Organization>
		<Department>Math and Computer Science</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/trggbvycsbve</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>605</ID>
		<Name>LSUHSC_CanavierLab</Name>
		<Description>Nonlinear dynamics of single neurons and networks</Description>
		<PIName>Carmen Canavier</PIName>
		<Organization>Louisiana State University Health Sciences Center</Organization>
		<Department>Cell Biology and Anatomy</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/9idmt4uz33c1</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>607</ID>
		<Name>LSUHSC_Lin</Name>
		<Description>LASSO Variable Selection for Genetic Interaction Models</Description>
		<PIName>Hui-Yi Lin</PIName>
		<Organization>Louisiana State University Health Sciences Center</Organization>
		<Department>Biostatistics</Department>
		<FieldOfScience>Biostatistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/9idmt4uz33c1</InstitutionID>
		<FieldOfScienceID>26.1102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>755</ID>
		<Name>LSUHSC_Yu</Name>
		<Description>Bayesian Mediation Analysis</Description>
		<PIName>Qingzhao Yu</PIName>
		<Organization>Louisiana State University Health Sciences Center</Organization>
		<Department>Biostatistics</Department>
		<FieldOfScience>Health Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/9idmt4uz33c1</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1970905518</ID>
		<Name>LSU_Chakraborty</Name>
		<Description>Work in the interdisciplinary fields in theoretical condensed matter physics, quantum information science and statistical physics. My research focuses on non-equilibrium dynamics of quantum many-particle systems, especially open quantum systems and disordered systems. My "Quantum Dynamics and Information" group at LSU will focus on three integrated research areas: (1) entanglement dynamics in monitored quantum circuits, (2) manipulation of quantum material by light and (3) dynamics of disordered systems and thermalization.</Description>
		<PIName>Ahana Chakraborty</PIName>
		<Organization>Louisiana State University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lk45ajqlj7f1</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1466529550</ID>
		<Name>LSU_Cox</Name>
		<Description>Using machine learning techniques that discover solutions with anatomically and temporally structured sparsity, we aim to test representational predictions from cognitive psychology using whole-brain neuroimaging datasets. 
</Description>
		<PIName>Christopher Cox</PIName>
		<Organization>Louisiana State University</Organization>
		<Department>Department of Psychology</Department>
		<FieldOfScience>Behavioral Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lk45ajqlj7f1</InstitutionID>
		<FieldOfScienceID>30.1701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>425231092</ID>
		<Name>LSU_Wilson</Name>
		<Description>The study of disorder effects in quantum materials and in far-from equilibrium quantum systems.</Description>
		<PIName>Justin Wilson</PIName>
		<Organization>Louisiana State University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lk45ajqlj7f1</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1205699017</ID>
		<Name>LTU_Moschelli</Name>
		<Description>Simulations of relativistic nuclear collisions. These simulations produce an "initial state" intended to mimic the moment of the nuclear collision and then several stages describing the dynamics of the interactions of the matter produced in the collision until the point until where it would be seen by experimental detectors. The goal of these simulations is to investigate theories of the strong nuclear force that governs the production of the initial state and interactions of produced matter.</Description>
		<PIName>George Moschelli</PIName>
		<Organization>Lawrence Technological University</Organization>
		<Department>Department of Natural Sciences</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zyc8xweopmj1</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>568</ID>
		<Name>LancasterPPS</Name>
		<Description>Lancaster Muon g-2 Experiment Beam Dynamics</Description>
		<PIName>Ian Bailey</PIName>
		<Organization>Lancaster University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dfdg98dgszv4</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>487</ID>
		<Name>Lariat</Name>
		<Description>Project entry corresponding to Lariat VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>407</ID>
		<Name>Leaderbipartite</Name>
		<Description>Leader-Milicevic-Tan asked how many products of complete bipartite graphs are needed to decompose the edge set of K_3 x K_n. Doing this with 2*(n-1) is trivial, here we use simulated annealing to search for a better construction.</Description>
		<PIName>Jozsef Balogh</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>898832953</ID>
		<Name>Lehigh_Lang</Name>
		<Description>Our research focuses on understanding the dynamics of mitonuclear co-evolution in populations of microorganisms. We use experimental evolution, next-generation sequencing, and systems biology approaches to study how populations adapt to different pairs of nuclear and mitochondrial genomes to uncover the mechanisms underlying these processes.</Description>
		<PIName>Gregory Lang</PIName>
		<Organization>Lehigh University</Organization>
		<Department>Department of Biological Sciences</Department>
		<FieldOfScience>Evolutionary Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zu72yws3nzeo</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>323</ID>
		<Name>Lg-Attenuation</Name>
		<Description>Determine the attenuation of the regional shear wave Lg for NE China and the contiguous United States using broadband seismograms.</Description>
		<PIName>Andrea C Gallegos</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Earth Sciences</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>343</ID>
		<Name>LiuLab</Name>
		<Description>The project goal is to create new computational methodologies for large-scale phylogenomic analyses involving complex evolutionary histories.</Description>
		<PIName>Kevin Jensen Liu</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Computer Science and Engineering</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>689</ID>
		<Name>LoyolaChicago_Li</Name>
		<Description>quantum chemical simulations</Description>
		<PIName>Pengfei Li</PIName>
		<Organization>Loyola University Chicago</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3zyvzg1ixzvw</InstitutionID>
		<FieldOfScienceID>40.0511</FieldOfScienceID>
	</Project>
	<Project>
		<ID>293042001</ID>
		<Name>LoyolaChicago_Wu</Name>
		<Description>Time Series Analysis, Bootstrap/Subsampling and Machine Learning methods, especially for their applications in prediction.</Description>
		<PIName>Kejin Wu</PIName>
		<Organization>Loyola University Chicago</Organization>
		<Department>Department of Mathematics and Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3zyvzg1ixzvw</InstitutionID>
		<FieldOfScienceID>27.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>541</ID>
		<Name>LyCfesc</Name>
		<Description>Lyman continuum escape fraction. Monte Carlo simulations of galaxy light absorption.</Description>
		<PIName>Rogier Windhorst</PIName>
		<Organization>Arizona State University</Organization>
		<Department></Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>652</ID>
		<Name>MCBI</Name>
		<Description>processing images with Freesurfer</Description>
		<PIName>Davide Momi</PIName>
		<Organization>Harvard University</Organization>
		<Department>Martinos Center for Biomedial Imaging</Department>
		<FieldOfScience>Medical Imaging</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>168</ID>
		<Name>MCP</Name>
		<Description>We wish to use the Condor grid for running the program ARCIMBOLDO, which is geared for finding HT molecular replacement solutions. Because we have a recalcitrant system in our hands, we really need this system to solve our problem.</Description>
		<PIName>C. S. Raman</PIName>
		<Organization>University of Maryland Baltimore</Organization>
		<Department>Pharmaceutical Sciences</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/atbdx81kfmv4</InstitutionID>
		<FieldOfScienceID>26.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>590</ID>
		<Name>MCSimulations</Name>
		<Description>The project entails the calculation of the scattering cross sections for the the production of a Higgs boson in association of several jets for current and future collider experiments such as the CERN Large Hadron Collider. Scattering cross section calculation employ Monte Carlo simulation tools such as Herwig 7.</Description>
		<PIName>Terrance Figy</PIName>
		<Organization>Wichita State University</Organization>
		<Department>Mathematics, Statistics, and Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3nn2sljiwwl</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>410</ID>
		<Name>MCSpinLiquid</Name>
		<Description>Perform monte carlo simulation on spin liquid systems</Description>
		<PIName>John McGreevy</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>586</ID>
		<Name>MEEG-group</Name>
		<Description>Interface between MEG/EEG tools and HTCondor</Description>
		<PIName>Arno Delorme</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Institute for Neural Computation</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1183213381</ID>
		<Name>MERIT_Research</Name>
		<Description>Network Research, Cybersecurity, and Technology Impact Research comprise the scope of our scholarship. Merit Research seeks to inspire and advance innovation in networking and cybersecurity. We also seek to increase the understanding of the societal impacts of technology, broadband and information access for the purpose of making the world a better place to learn, discover, work and live.

The National Distributed Network Telescope (NDNT) is a nationwide initiative led by Merit Network to build a collaborative infrastructure for analyzing unsolicited Internet traffic—also known as darknet data.
A network telescope is a system that monitors unused portions of the Internet’s address space to collect and analyze traffic that was not intentionally sent to a live host. This data offers a unique window into global Internet activity, allowing researchers to study scanning behavior, attacks, and other anomalous events that help strengthen cybersecurity.</Description>
		<PIName>Pierrette Dagg</PIName>
		<Organization>Michigan Educational Research Information Triad</Organization>
		<Department>MERIT</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2x7amv9hgs14</InstitutionID>
		<FieldOfScienceID>11.0901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>741</ID>
		<Name>MFEKC</Name>
		<Description>Molecular-Free-Energy-Computing</Description>
		<PIName>Glen Hocky</PIName>
		<Organization>New York University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hjcl6b3vh3ox</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>571</ID>
		<Name>MFProteins</Name>
		<Description>Simulations of mini-fluorescent proteins</Description>
		<PIName>Colin Smith</PIName>
		<Organization>Wesleyan University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xhmnioxyd5ck</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>511</ID>
		<Name>MINT</Name>
		<Description>The Model INTegration (MINT) project will develop a modeling environment which will significantly reduce the time needed to develop new integrated models, while ensuring their utility and accuracy.</Description>
		<PIName>Mats Rynge</PIName>
		<Organization>ISI</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>800</ID>
		<Name>MIT_Akiyama</Name>
		<Description>Developing computational imaging techniques in radio astronomy</Description>
		<PIName>Kazunori Akiyama</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Haystack Observatory</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>804</ID>
		<Name>MIT_Chakraborty</Name>
		<Description>Using computational methods to study the adaptive immune system; simulating the processes of affinity maturation in order to improve vaccine design.</Description>
		<PIName>Arup Chakraborty</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Chemical Engineering</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>26.0507</FieldOfScienceID>
	</Project>
	<Project>
		<ID>744</ID>
		<Name>MIT_Choi</Name>
		<Description>Simulating dynamics of strongly interacting quantum many-body systems</Description>
		<PIName>Soonwon Choi</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Center for Theoretical Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1399239992</ID>
		<Name>MIT_Chuang</Name>
		<Description>We aim to perform large-scale simulations of error-correcting codes for quantum computation. In particular, we wish to test post-selection strategies for high-rate quantum codes (those that very efficiently pack in a large amount of error-corrected qubits into a relatively small number of physical qubits) which will allow us to improve the error rate by orders of magnitude by only rejecting a small fraction of the shots. Our work is highly suitable for high throughput computing because we need to take billions of shots of the simulation, each of which is very cheap; it is not a problem if our jobs are cancelled.</Description>
		<PIName>Isaac Chuang</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Department of Electrical Engineering/Department of Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>795</ID>
		<Name>MIT_Hill</Name>
		<Description>This is for NSF-NASA efforts to create very large realistic models of the Earths oceans ( https://data.nas.nasa.gov/ecco/ ). Some of our largest modeling efforts produce multi-petabyte solutions and we are experimenting with sharing via the NSF Open Storage Network to provide broad open access to datasets that are increasingly widely used. We are interested in undertaking high-throughput analysis to identify ocean vorticity feature statistics in different model solutions to better understand air-sea feedbacks that are significant for better modeling climate processes. We are also interested in creating scripts that we can share widely with downstream users throughout the US and globally. We will be using the OSN object store accessed through the Python s3fs and xarray tools. These allow high concurrency access for reading different objects within the project OSN S3 buckets.</Description>
		<PIName>Chris Hill</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Earth, Atmospheric and Planetary Sciences</Department>
		<FieldOfScience>Earth and Ocean Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40</FieldOfScienceID>
	</Project>
	<Project>
		<ID>526815136</ID>
		<Name>MIT_Kardar</Name>
		<Description>Simulation of large-scale evolutionary dynamics</Description>
		<PIName>Mehran Kardar</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1315886390</ID>
		<Name>MIT_Takei</Name>
		<Description>I am working on models for quantifying the effects on the change of financial regulations</Description>
		<PIName>Ikuo Takei</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Global Programs</Department>
		<FieldOfScience>Finance</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>52.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1657278455</ID>
		<Name>MIT_Wen</Name>
		<Description>Running Quantum Monte Carlo simulations on quantum Hall states and its modifications which can lead to a superconductor, and compare its energetics to Fermi liquid states. See 2409.18067 and 2507.18582 for our recent efforts. We are trying to expand our calculation to Wigner crystal states and further class of Slater-Jastrow type wavefunctions to calculate a more exact wavefunction of parton theory which could lead to new insights in high Tc superconductivity or spin liquids.</Description>
		<PIName>Xiao-Gang Wen</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2138057204</ID>
		<Name>MIT_submit</Name>
		<Description>Workloads originating on the submit infrastructure at mit.edu</Description>
		<PIName>Zhangqier Wang</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Laboratory for Nuclear Science</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>525</ID>
		<Name>MLResearch</Name>
		<Description>Image Reconstruction of Satellites using Machine Learning using MATLAB.</Description>
		<PIName>Ashish Tiwari</PIName>
		<Organization>Georgia State University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ybl3snr9pbs1</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1732137639</ID>
		<Name>MMC_Leegon</Name>
		<Description>Provide services to other PIs both on campus and at other academic institutions including student training. In addition, internally we do bioinformatics research with tools such as BLAST.</Description>
		<PIName>Jeffrey Leegon</PIName>
		<Organization>Meharry Medical College</Organization>
		<Department>Bioinformatics and Proteomics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/szgkxvztsl07</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>372</ID>
		<Name>MMHA</Name>
		<Description>The project aim is to estimate structural parameters of dynamic heterogeneous agent model to investigate the optimal design of monetary and financial policies. In particular, we need to find numerical solutions for stochastic dynamic programming problems with many state variables.</Description>
		<PIName>Ikuo Takei</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>45.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>442</ID>
		<Name>MOLLER</Name>
		<Description>The MOLLER experiment at Jefferson Lab is a Department of Energy supported project (currently past CD-0 status) that aims to determine the electroweak mixing angle to the highest precision at low energies through elastic electron-electron scattering.</Description>
		<PIName>Wouter Deconinck</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>475</ID>
		<Name>MOmega</Name>
		<Description>Looking at agreement of African triage data using Meier's Omega</Description>
		<PIName>Maxene Meier</PIName>
		<Organization>University of Colorado</Organization>
		<Department>School of Public Health</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>27.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>133</ID>
		<Name>MS-EinDRC</Name>
		<Description>For modeling and other computational projects of the Mt. Sinai-Einstein DRC and affiliates, primarily structurally related protein Modeling and Docking.</Description>
		<PIName>Jacob Pessin</PIName>
		<Organization>Albert Einstein College of Medicine</Organization>
		<Department>Endocrinology</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yzcm7hs9f1d0</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>4446861</ID>
		<Name>MSKCC_Chodera</Name>
		<Description>We are developing a system to enable high throughput free energy calculations.</Description>
		<PIName>John Chodera</PIName>
		<Organization>Memorial Sloan Kettering Cancer Center</Organization>
		<Department>MSKCC</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/tna2ohxsca1r</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1639234221</ID>
		<Name>MSSM_Ali</Name>
		<Description>Hands on Training on Robust Molecular Simulations Introduces students to the exciting areas in Computational Biophysics, drug design, bioinformatics and potentially other computing intensive fields</Description>
		<PIName>Rejwan Ali</PIName>
		<Organization>Icahn School of Medicine at Mount Sinai</Organization>
		<Department>Neurology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uwam2e6xh8l2</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>717004860</ID>
		<Name>MSState_2024_Chen</Name>
		<Description>This project is dedicated to creating a comprehensive multimodal platform, specifically designed to enhance graph dynamics analytics in professional settings.Our goal is to encompass the complete life cycle of graph dynamics with particular emphasis on spatial trajectory mining, including location prediction, optimal routing inference, and identity recognition. Central to this initiative is utilization the capabilities of large transformer models (e.g., Large Language Models, Vision Transformers, or Graph Transformers). These will be tailored to effectively capture the complexities inherent in trajectory over spatial graphs. By leveraging natural language, we can unlock the potential of advanced graph analytics to those without programming expertise, and enable seamless collaboration between experts across domains by speaking the universal language.
</Description>
		<PIName>Zhiqian Chen</PIName>
		<Organization>Mississippi State University</Organization>
		<Department>Computer Science and Engineering</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/imn1pe0dhcwc</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1825977922</ID>
		<Name>MST_Arifuzzaman</Name>
		<Description>Elastic Data Transfer Optimizations</Description>
		<PIName>Md Arifuzzaman</PIName>
		<Organization>Missouri University of Science and Technology</Organization>
		<Department>Department of Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/a5fyyhl121i9</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>635</ID>
		<Name>MSU_Berz</Name>
		<Description>Nonlinear beam dynamics simulations of the Muon g-2 Experiment at Fermilab</Description>
		<PIName>Martin Berz</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>721</ID>
		<Name>MSU_Colbry</Name>
		<Description>SEE-Insight: Scientific Image Understanding algorithm discovery using Simple Evolutionary Exploration</Description>
		<PIName>Dirk Colbry</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Computational Mathematics, Science and Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2061809859</ID>
		<Name>MSU_ICERStaff</Name>
		<Description>Group for ICER (Institute for Cyber Enabled Research) staff at Michigan State</Description>
		<PIName>Dirk Colbry</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Institute for Cyber Enabled Research</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1365653334</ID>
		<Name>MSU_Jacobson</Name>
		<Description>My students and I are planetary scientists who study the planets, moons, asteroids, and comets of the Solar System as well as other planetary systems with computational tools from the fields of celestial mechanics, geophysics, and geochemistry.  Our science is driven by big questions: where did our world come from? What other kinds of worlds are out there? And, how unique is our planets history? (www.planetarymakerspace.org)</Description>
		<PIName>Seth Jacobson</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Earth &amp; Environmental Sciences</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>40.0601b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1819838320</ID>
		<Name>MSU_Kerzendorf</Name>
		<Description>Astronomy simulations for machine learning</Description>
		<PIName>Wolfgang Kerzendorf</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>353703611</ID>
		<Name>MSU_Mitra</Name>
		<Description>Reliability and resilience in power systems, focusing on Monte Carlo and Markov Chain Monte Carlo methods for modeling grid performance.</Description>
		<PIName>Joydeep Mitra</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>14.4701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1775226506</ID>
		<Name>MSU_RCI</Name>
		<Description>Montana State University - RCI staff</Description>
		<PIName>Alex Salois</PIName>
		<Organization>Montana State University</Organization>
		<Department>Research Cyberinfrastructure</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0budavib8vhh</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>627</ID>
		<Name>MSU_Szilagyi</Name>
		<Description>Emergence of Life</Description>
		<PIName>Robert Szilagyi</PIName>
		<Organization>Montana State University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0budavib8vhh</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2025707023</ID>
		<Name>MTU_Sha</Name>
		<Description>My methodological research projects focus on the development of novel statistical methods and efficient bioinformatical tools to address problems from genome-wide association studies and phenome-wide association studies.</Description>
		<PIName>Qiuying Sha</PIName>
		<Organization>Michigan Technological University</Organization>
		<Department>Department of Mathematical Sciences</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o049zuevacpx</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>753</ID>
		<Name>MTU_Zhang</Name>
		<Description>Statistical genetics</Description>
		<PIName>Kui Zhang</PIName>
		<Organization>Michigan Technological University</Organization>
		<Department>Mathematical Sciences</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o049zuevacpx</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>381419697</ID>
		<Name>Macalester_Staff</Name>
		<Description>Group for staff members at Macalester College test-driving the OSPool.</Description>
		<PIName>Tamatha Perlman</PIName>
		<Organization>Macalester College</Organization>
		<Department>Information Technology Services</Department>
		<FieldOfScience>Technology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/aepd2prkwqu2</InstitutionID>
		<FieldOfScienceID>11.0103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>403</ID>
		<Name>MaizeAminoAcids</Name>
		<Description>The amino acid content in maize kernels is critically important for human and animal nutrition. However, the genetic basis underpinning amino acids is not fully understood. We are performing Genome Wide Association Studies and Genomic prediction in a panel of several thousand maize plants genotyped at tens of millions of loci to finely dissect amino acid traits in maize.</Description>
		<PIName>Timothy M Beissinger</PIName>
		<Organization>University of Missouri</Organization>
		<Department>Divison of Plant Sciences</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dohu2f6ba08u</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>483</ID>
		<Name>Mapping</Name>
		<Description>Spectroscopic maps are widely used in condensed-phase vibrational spectroscopic simulations. We aim to develop ab-initio-based maps for water, and more complex systems.</Description>
		<PIName>Liang Shi</PIName>
		<Organization>University of California, Merced</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x5v4n3xgq7lu</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>436</ID>
		<Name>MarLab</Name>
		<Description>Doing RNA-seq analysis to understand biomolecular systems.</Description>
		<PIName>Jessica Mar</PIName>
		<Organization>Albert Einstein College of Medicine</Organization>
		<Department>Systems and Computational Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yzcm7hs9f1d0</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>360</ID>
		<Name>MedInf</Name>
		<Description>Analysis of modern surgery presents many interesting computational challenges. The problems of access to data, data analysis, and interpretation of said analysis all present fundamental, unsolved difficulties to those in medical informatics. The focus of this project primarily involves data analysis where operations are still typically thought of holistically and conceptually, rather than algorithmically. This work is an attempt to change that by properly defining surgical procedures in a manner conducive to both education and analysis.</Description>
		<PIName>Alex Langerman</PIName>
		<Organization>The University of Chicago</Organization>
		<Department>Otolaryngology</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>859337669</ID>
		<Name>MedPhysics_DeWerd</Name>
		<Description>Simulations for radiation therapy applications</Description>
		<PIName>Larry DeWerd</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Medical Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51.2205</FieldOfScienceID>
	</Project>
	<Project>
		<ID>297166558</ID>
		<Name>Merrimack_Mahata</Name>
		<Description>We use Density functional theory calculation, Ab-inito Molecular Dynamics and classical molecular dynamics simulation on metals, alloys using Quantum Espresso, CP2K, LAMMPS, GROMACS. https://www.merrimack.edu/profiles/avik-mahata/</Description>
		<PIName>Avik Mahata</PIName>
		<Organization>Merrimack College</Organization>
		<Department>Department of Mechanical Engineering</Department>
		<FieldOfScience>Materials Research</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bryhdz8by9bi</InstitutionID>
		<FieldOfScienceID>14.1801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1300616071</ID>
		<Name>MiamiOH_Staff</Name>
		<Description>Staff at Miami University in Ohio</Description>
		<PIName>Jens Mueller</PIName>
		<Organization>Miami University</Organization>
		<Department>Research Office</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7x1mbq3fyfo4</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1266613576</ID>
		<Name>Michigan_2023_Riles</Name>
		<Description>Research on gravitational waves and elementary particle physics.</Description>
		<PIName>J. Keith Riles</PIName>
		<Organization>University of Michigan–Ann Arbor</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>767</ID>
		<Name>Michigan_ARCStaff</Name>
		<Description>Research IT support and advocacy</Description>
		<PIName>Todd Raeker</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Advanced Research Computing</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1472383658</ID>
		<Name>Michigan_Alben</Name>
		<Description>The planned research will discover improved flows for thermal transport enhancement. We will extend an existing steady 2D method to efficiently compute optimal unsteady 2D flows in benchmark geometries such as channel flows, and closed and open domains between hot and cold surfaces. We will also develop computational methods for optimal flows in 3D domains that are analogous to the 2D domains we have studied, and determine the gains from 3D flows relative to 2D flows in comparable domains.</Description>
		<PIName>Silas Alben</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Applied Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>27.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>770</ID>
		<Name>Michigan_Bioinformatics</Name>
		<Description>OSG for UMich Bioinformatics</Description>
		<PIName>Chris Gates</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Biomedical Research Core Facilities</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>766</ID>
		<Name>Michigan_Brines</Name>
		<Description>Assessing &amp; Communicating Climate and Water Ecosystem Services of the City of Ann Arbor Greenbelt Program</Description>
		<PIName>Shannon Brines</PIName>
		<Organization>University of Michigan</Organization>
		<Department>The School for Environment and Sustainability</Department>
		<FieldOfScience>Natural Resources and Conservation</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>789</ID>
		<Name>Michigan_Jadidi</Name>
		<Description>Cave mapping with underwater robots using invariant common filter method.</Description>
		<PIName>Maani Ghaffari Jadidi</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Naval Architecture and Marine Engineering</Department>
		<FieldOfScience>Robotics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>14.4201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>196984630</ID>
		<Name>Michigan_Jahn</Name>
		<Description>I want to make videos and documentation showing how to use the Open Science Grid to analyze large FreeSurfer datasets. This is to help make supercomputing resources more accessible to students and researchers at smaller colleges that may not have their own supercomputing cluster.</Description>
		<PIName>Andrew Jahn</PIName>
		<Organization>University of Michigan</Organization>
		<Department>fMRI Laboratory</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>814</ID>
		<Name>Michigan_Knowles</Name>
		<Description>Population genetics and demography</Description>
		<PIName>L. Lacey Knowles</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Ecology and Evolutionary Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>712</ID>
		<Name>Michigan_Riles</Name>
		<Description>Continuous gravitational waves</Description>
		<PIName>Keith Riles</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Gravitational Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1193659107</ID>
		<Name>Michigan_Schwarz</Name>
		<Description>Work on Di-Higgs searches, specifically HH-&gt;bbtautau process, and my main research focus is working on Machine learning algorithm optimization for the analysis, see link of my most recent progress of my research: https://cernbox.cern.ch/index.php/s/qPJ7QkOcOjrZdMW</Description>
		<PIName>Thomas Schwarz</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics, Particle Physics, High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>793</ID>
		<Name>Michigan_Seelbach</Name>
		<Description>Automating movement and identification of fish in restored wetland areas</Description>
		<PIName>Paul Seelbach</PIName>
		<Organization>University of Michigan</Organization>
		<Department>School for Environment and Sustainability</Department>
		<FieldOfScience>Earth and Ocean Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40</FieldOfScienceID>
	</Project>
	<Project>
		<ID>161275571</ID>
		<Name>Michigan_Viswanathan</Name>
		<Description>This project seeks to understanding the solvent design rules for efficient electrodeposition of cations. By combining molecular dynamics and first-principles (DFT) calculations, we want to design cation–anion–solvent–additive electrolytes that simultaneously promote metal-oxide ore dissolution and suppress parasitic hydrogen evolution primarily by expanding water’s cathodic stability window while maintaining efficient metal electrodeposition.</Description>
		<PIName>Venkatasubramanian Viswanathan</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Department of Aerospace Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>788</ID>
		<Name>Michigan_Wells</Name>
		<Description>Training neural networks for particle physics research</Description>
		<PIName>James Wells</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>494</ID>
		<Name>MicroBooNE</Name>
		<Description>Project entry corresponding to the MicroBooNE VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>491</ID>
		<Name>Minerva</Name>
		<Description>Project entry corresponding to the Minerva VO.</Description>
		<PIName>Gabriel Nathan Perdue</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>569429769</ID>
		<Name>Mines_2023_Stevanovic</Name>
		<Description>Computational materials physics and materials science research. Focus on inorganic functional materials, materials discovery and design.</Description>
		<PIName>Vladan Stevanovic</PIName>
		<Organization>Colorado School of Mines</Organization>
		<Department>Metallurgical and Materials Engineering</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2gwyao3kqhpn</InstitutionID>
		<FieldOfScienceID>14.1801b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>833</ID>
		<Name>Mines_BeEST</Name>
		<Description>The Beryllium Electron capture in Superconducting Tunnel junctions Experiment (BEeST) employs the decay–momentum reconstruction technique to precisely measure the 7Be 7Li recoil energy spectrum in superconducting tunnel junctions (STJs).</Description>
		<PIName>Kyle Leach</PIName>
		<Organization>Colorado School of Mines</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2gwyao3kqhpn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>739</ID>
		<Name>Mines_CIARCStaff</Name>
		<Description>Staff at the Cyberinfrastrucure and Advanced Research Computing, within central IT (ITS).</Description>
		<PIName>Matthew Ketterling</PIName>
		<Organization>Colorado School of Mines</Organization>
		<Department>Cyberinfrastructure and Advanced Research Computing</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2gwyao3kqhpn</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>745</ID>
		<Name>Mines_GomezGualdron</Name>
		<Description>Prediction of Adsorption in Metal-Organic Frameworks</Description>
		<PIName>Diego Gomez-Gualdron</PIName>
		<Organization>Colorado School of Mines</Organization>
		<Department>Chemical and Biological Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2gwyao3kqhpn</InstitutionID>
		<FieldOfScienceID>14.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>606</ID>
		<Name>Mines_Leach</Name>
		<Description>Nuclear Two-Photon Decay with GRIFFIN</Description>
		<PIName>Kyle Leach</PIName>
		<Organization>Colorado School of Mines</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2gwyao3kqhpn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>150</ID>
		<Name>MiniWorkshopUC15</Name>
		<Description>Open Science Grid Mini-Workshop at University of Chicago on April 9th 2015</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>503</ID>
		<Name>Minos</Name>
		<Description>Project entry corresponding to the Minos VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>645</ID>
		<Name>Mizzou_OSGTeaching</Name>
		<Description>Teaching OSG at Mizzou</Description>
		<PIName>Timothy Middelkoop</PIName>
		<Organization>University of Missouri</Organization>
		<Department>Research Computing Support Services, Division of IT</Department>
		<FieldOfScience>Education</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dohu2f6ba08u</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>624</ID>
		<Name>Mizzou_RCSS</Name>
		<Description>Research Computing Support Services at the University of Missouri</Description>
		<PIName>Timothy Middelkoop</PIName>
		<Organization>University of Missouri</Organization>
		<Department>Research Computing Support Services, Division of IT</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dohu2f6ba08u</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1722643692</ID>
		<Name>MontgomeryCollege_Dillman</Name>
		<Description>workforce training, 2-5 day workshops every couple of months to get bench biologists comfortable with various bioinformatics pipelines on the command line.</Description>
		<PIName>Allissa Dillman</PIName>
		<Organization>Montgomery College</Organization>
		<Department>Workforce Development &amp; Continuing Education</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hsi3jk083s4c</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>493</ID>
		<Name>Mu2e</Name>
		<Description>Project entry corresponding to the Mu2e VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>863118607</ID>
		<Name>NASA_Nasipak</Name>
		<Description>Gravitational wave modeling, specifically the modeling the dynamics and gravitational waves of black hole binaries known as extreme-mass-ratio inspirals for future milliHertz detectors.
</Description>
		<PIName>Zachary Nasipak</PIName>
		<Organization>National Aeronautics and Space Administration</Organization>
		<Department>Goddard Space Flight Center</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hrt3mp3j3ceb</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2124538007</ID>
		<Name>NCAR_Schuster</Name>
		<Description>We plan to test the capabilities of the OSPool to run climate science research related data analytics workflows using datasets made accessible through NSF NCAR's integration with the Open Science Data Federation.</Description>
		<PIName>Douglas Schuster</PIName>
		<Organization>National Center for Atmospheric Research</Organization>
		<Department>Computational and Information System Lab</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hfo8pge14iwg</InstitutionID>
		<FieldOfScienceID>40.0401</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1280754188</ID>
		<Name>NCEMS</Name>
		<Description>The National Synthesis Center for Emergence in the Molecular and Cellular Sciences (NCEMS), funded by the U.S. National Science Foundation (NSF), is dedicated to catalyzing multidisciplinary scientific teams to synthesize publicly available data to address fundamental questions related to emergence phenomena in the molecular and cellular biosciences. NCEMS efforts are focused on emergent properties at the mesoscale. A description of our first cohort of 10 Working Groups is available here: https://ncems.psu.edu/working-groups/</Description>
		<PIName>Ed O'Brien</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Department of Chemistry</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>26.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>394</ID>
		<Name>NCOppSchool</Name>
		<Description>Studying the effects of the North Carolina Opportunity Scholarship using a discrete choice model. The estimation recovers utility parameters for school choice using school enrollments.</Description>
		<PIName>Michael Dinerstein</PIName>
		<Organization>The University of Chicago</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>484556001</ID>
		<Name>NCSU_2023_Hall</Name>
		<Description>Research involving biomolecule simulation, self-assembly of soft materials, and the design of synthetic peptides.</Description>
		<PIName>Carol Hall</PIName>
		<Organization>North Carolina State University</Organization>
		<Department>Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mcejqenugk6j</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>703410343</ID>
		<Name>NCSU_Barroso</Name>
		<Description>Biomolecular interactions have been core pillars of our research. We are involved in developing and applying new computational technologies and offering a rational computational-based approach to the study of protein systems and the discovery of novel therapeutic agents (e.g. antibodies), biomarkers, and proteins for specific applications including key disease-related protein mechanisms.</Description>
		<PIName>Fernando Luis Barroso da Silva</PIName>
		<Organization>North Carolina State University</Organization>
		<Department>Department of Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Biological and Biomedical Sciences/Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mcejqenugk6j</InstitutionID>
		<FieldOfScienceID>26.0203</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2097859602</ID>
		<Name>NCSU_Gray</Name>
		<Description>Map and characterize global change, and to understand the consequences of these changes for the Earth system and society.  Anthropogenic changes to vegetation (e.g. cropping systems, deforestation, etc.) are of particular interest.  Example research questions include: How can we feed a growing population without running out of water?  Have tropical deforestation mitigation policies been effective? How is vegetation phenology changing in response to a changing climate?
</Description>
		<PIName>Josh Gray</PIName>
		<Organization>North Carolina State University</Organization>
		<Department>Center for Geospatial Analytics</Department>
		<FieldOfScience>Geosciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mcejqenugk6j</InstitutionID>
		<FieldOfScienceID>40.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>408037770</ID>
		<Name>NCSU_Hall</Name>
		<Description>Studies of square shaped colloidal particles with internal magnetic dipoles. Objective is to discover the phase behavior of colloids under the presence and absence of a magnetic field.</Description>
		<PIName>Carol Hall</PIName>
		<Organization>North Carolina State University</Organization>
		<Department>Department of Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mcejqenugk6j</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1706931595</ID>
		<Name>NCSU_Petersen</Name>
		<Description>Annealing of graphite by using large ensembles to accelerate barrier crossing times. https://www.sciencedirect.com/science/article/pii/S0022311517315490</Description>
		<PIName>Andrew Petersen</PIName>
		<Organization>North Carolina State University</Organization>
		<Department>OIT HPC</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mcejqenugk6j</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1380245457</ID>
		<Name>NCSU_Staff</Name>
		<Description>Continue my access to the OSPool after the OSG School to further  support potential users and workflows for NC State University
</Description>
		<PIName>Christopher Blanton</PIName>
		<Organization>North Carolina State University</Organization>
		<Department>Research Facilitation Service</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mcejqenugk6j</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>478</ID>
		<Name>NDSU-CCAST</Name>
		<Description>As a new contributor of resources to OSG, we would like to introduce our users to the grid and help them transition some of their jobs to OSG resources, as appropriate.</Description>
		<PIName>Nick Dusek</PIName>
		<Organization>North Dakota State University</Organization>
		<Department>Center for Computationally Assisted Science and Technology</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/der850qlvoxm</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>803</ID>
		<Name>NDSU_Yellavajjala</Name>
		<Description>A.I. Reinforcement Learning Algorithm</Description>
		<PIName>Ravi Kiran Yellavajjala</PIName>
		<Organization>North Dakota State University</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/der850qlvoxm</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1944794325</ID>
		<Name>ND_Chen</Name>
		<Description>Training AI models on public medical image data</Description>
		<PIName>Danny Chen</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>College of Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>14.4701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1808238491</ID>
		<Name>ND_Colon</Name>
		<Description>Looks into the use of transfer learning into the molecular framework space and application.</Description>
		<PIName>Yamil J. Colón</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>Chemical Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>14.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1620059748</ID>
		<Name>ND_Lalor</Name>
		<Description>Conduct research on efficient training for large language models and other analytics methods.  My research uses GPU compute to evaluate the efficiency improvements of LLM training modifications  to develop smaller, more efficient, and easier-to-train models that reduce the computational and cost burden.
</Description>
		<PIName>John Lalor</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>Department of IT, Analytics, and Operations</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>629748230</ID>
		<Name>ND_Savoie</Name>
		<Description>Perform DFT calculations on organometallics for homogeneous and heterogeneous catalysis.</Description>
		<PIName>Brett Savoie</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>Department of Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1861907258</ID>
		<Name>ND_Thain</Name>
		<Description>The Floability project (NSF CSSI 2411436) is developing techniques for creating reliable, scalable, and reproducible workflows that can be accessed through computational notebooks.  Here, we are adapting atmospheric analysis codes using the Dask framework to use Dask + TaskVine so as to run effectively on preemptible resources on the OSG.  This is a limited development and testing activity -- if successful, the codes will be passed to end users for production runs.</Description>
		<PIName>Douglas Thain</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>Dept of Computer Science and Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1431240493</ID>
		<Name>ND_Whitmer</Name>
		<Description>Organic mixed ionic–electronic conductors (OMIECs) couple π-conjugated electronic pathways with ion transport. The process of ion insertion-deinsertion, which confers functionality, also produces pronounced electrochemical hysteresis, resulting in time-dependent shifts in the current-voltage response. My research is mainly about multi-scale simulation of organic mixed ionic-electronic conductors, especially focusing on the mechanism of electrochemical hysteresis by molecular dynamics simulations.</Description>
		<PIName>Jonathan Whitmer</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>14.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>85</ID>
		<Name>NEESTools</Name>
		<Description>Earthquake Engineering is moving towards performance based
engineering. Performance based engineering will potentially
require and exponentially increase the amount of computation
required of engineers as engineers move to incorporate risk and
uncertainty associated with hazard, modeling, cost, material,
etc. into the simulations. Currently those in research mostly are
using the OpenSees (http://opensees.berkeley.edu) application to
perform these calculations. This project aims at providing these
researchers with access to current versions of OpenSees by
utilizing resources to build the application on OSG resources.</Description>
		<PIName>Frank McKenna</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Civil Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>14.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>24</ID>
		<Name>NESCent</Name>
		<Description>NESCent promotes the synthesis of information, concepts and knowledge to address significant, emerging, or novel questions in evolutionary science and its applications. NESCent achieves this by supporting research and education across disciplinary, institutional, geographic, and demographic boundaries.</Description>
		<PIName>Fabricia Nascimento</PIName>
		<Organization>Duke University</Organization>
		<Department>NESCent Center</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>433</ID>
		<Name>NGNDA</Name>
		<Description>The goal of this project is to develop and deploy a novel computational platform for massive parallel analysis
of high-dimensional brain networks.</Description>
		<PIName>Caterina Stamoulis</PIName>
		<Organization>Harvard Medical School</Organization>
		<Department>Medicine</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1553547974</ID>
		<Name>NIAID_TBPortals</Name>
		<Description>Training AI models and CT image processing and analysis using these AI models.  The collaboration is part of our TB Portals program https://tbportals.niaid.nih.gov/</Description>
		<PIName>Darrell Hurt</PIName>
		<Organization>National Institute of Allergy and Infectious Diseases</Organization>
		<Department>Office of Cyber Infrastructure and Computational Biology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/451cgt72wj62</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>614</ID>
		<Name>NII</Name>
		<Description>The Michigan Neuroimaging initiative aims to enhance and expand neuroimaging research at the University of Michigan and to encourage collaboration with other neuroimaging researchers and researchers in other fields who can contribute innovative methods, computational resources, or new perspectives that will aid neuroimaging research.</Description>
		<PIName>Bennet Fauber</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Neuroimaging</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>828</ID>
		<Name>NIST_CTCMS</Name>
		<Description>Staff in the Center for Theoretical and Computational Materials at the National Institute of Standards and Technology.</Description>
		<PIName>Andrew Reid</PIName>
		<Organization>National Institute of Standards and Technology</Organization>
		<Department>Center for Theoretical and Computational Materials</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2c1dbp9xe39x</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1470556378</ID>
		<Name>NIST_Cardone</Name>
		<Description>The project focuses on machine learning (ML)-aided design of antimicrobial peptides (AMP), viable therapeutic alternative to antibiotics. It builds upon an existing workflow that interrogates a database via API queries, creates suitable libraries, predicts AMP 3D structures through MC or MD simulations, and extract structure-based features (SbF).</Description>
		<PIName>Antonio Cardone</PIName>
		<Organization>National Institute of Standards and Technology</Organization>
		<Department>Information Technology Lab</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2c1dbp9xe39x</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1424836769</ID>
		<Name>NIST_Jollota</Name>
		<Description>I will be working on Monte Carlo based simulations for radiation transport. This will aid in determination of primary standards for radiation sources that will be transferred to clinically relevant quantities.</Description>
		<PIName>Sean Jollota</PIName>
		<Organization>National Institute of Standards and Technology</Organization>
		<Department>Radiation Physics Division</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2c1dbp9xe39x</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1335741304</ID>
		<Name>NJIT_Nadim</Name>
		<Description>Work is concerned with uncovering the principles of underlying neural circuit function.</Description>
		<PIName>Farzan Nadim</PIName>
		<Organization>New Jersey Institute of Technology</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zhy58gsknnaw</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1609036887</ID>
		<Name>NMHU_Saikia</Name>
		<Description>Integrating advanced computational methodologies, including molecular docking, quantum chemical calculations, and molecular dynamics simulations to understand molecular behavior and interactions.</Description>
		<PIName>Nabanita Saikia</PIName>
		<Organization>New Mexico Highlands University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4vt9q627ifxr</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1522370732</ID>
		<Name>NMSU_Lawson</Name>
		<Description>I am requesting an OSPool project for my postdoctoral research investigating  drivers of population decline for the American Kestrel, a raptor species that breeds  across North America. I plan to use OSG resources to compile my environmental data  and fit statistical models.
</Description>
		<PIName>Abigail Lawson</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Fish, Wildlife, and Conservation Ecology</Department>
		<FieldOfScience>Ecological and Environmental Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>1.0902</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1752485673</ID>
		<Name>NMSU_Sievert</Name>
		<Description>Research into the interaction of high-energy particles and jets with hot and cold nuclear matter.</Description>
		<PIName>Matthew Sievert</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2105544801</ID>
		<Name>NMSU_Zhang</Name>
		<Description>UAV bridge inspection</Description>
		<PIName>Qianyun Zhang</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Civil Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>14.0803</FieldOfScienceID>
	</Project>
	<Project>
		<ID>650</ID>
		<Name>NMSU_staff</Name>
		<Description>NMSU staff experimenting with OSG</Description>
		<PIName>Strahinja Trecakov</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>ICT Cyber Infrastructure Architect Team</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>292073190</ID>
		<Name>NOAA_Bell</Name>
		<Description>Water column sonar data, the acoustic back-scatter from the near surface to the seafloor, are used to assess physical and biological characteristics of the ocean including the spatial distribution of plankton, fish, methane seeps, and underwater oil plumes. Currently our catalog includes 270 TB of data that we are working to convert from a proprietary industry format into a cloud native Zarr format. Further documentation: &lt;https://cires.gitbook.io/ncei-wcsd-archive/&gt;</Description>
		<PIName>Carrie Bell</PIName>
		<Organization>National Oceanic and Atmospheric Administration</Organization>
		<Department>Cooperative Institute for Research in Environmental Sciences</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dj8afwaycl7r</InstitutionID>
		<FieldOfScienceID>40.0607</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1645547921</ID>
		<Name>NOAA_Boyer</Name>
		<Description>https://www.ncei.noaa.gov/products/world-ocean-database
The World Ocean Database (WOD) is the world's largest collection of uniformly formatted, quality controlled, publicly available ocean profile data. It is a powerful tool for oceanographic, climatic, and environmental research, and the end result of more than 20 years of coordinated efforts to incorporate data from institutions, agencies, individual researchers, and data recovery initiatives into a single database. WOD data spans from Captain Cook's 1772 voyage to the contemporary Argo period, making it a valuable resource for long term and historical ocean climate analysis. Original versions of the 20,000+ datasets in the WOD are available</Description>
		<PIName>Tim Boyer</PIName>
		<Organization>National Oceanic and Atmospheric Administration</Organization>
		<Department>CIRES</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dj8afwaycl7r</InstitutionID>
		<FieldOfScienceID>30.3201b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>137630307</ID>
		<Name>NOAA_DucharmeBarth</Name>
		<Description>NOAA Fisheries uses stock assessments to monitor the condition of nearly 500 fish stocks and stock complexes (groups of similar stocks managed together). Stock assessments are scientific efforts that involve data collection, data processing, and mathematical modeling that estimate the health and size of a fish stock, measure how fishing affects the stock, and project harvest levels that achieve the largest sustainable long-term yield. Stock assessments are the backbone of sustainable fisheries management. These assessments allow us to evaluate and report the status of managed fisheries, marine mammals, and endangered/threatened species under the authorities of the Magnuson-Stevens Fishery Conservation and Management Act, the Marine Mammal Protection Act, and the Endangered Species Act. The outcome of this project will be to develop and document a workflow for running existing stock assessment platforms (e.g. StockSynthesis, Multifan-CL, Beaufort Assessment Model, etc.) on a distributed computing system in order to facilitate the script based, ‘simultaneous’ exploration of multiple alternative model configurations. This workflow can be used to develop a stock assessment in either the single best base case or ensemble model framework. This project will support hypothesis exploration, model ensembling, and improved automation of stock assessments.</Description>
		<PIName>Nicholas Ducharme-Barth</PIName>
		<Organization>National Oceanic and Atmospheric Administration</Organization>
		<Department>Pacific Islands Fisheries Science Center</Department>
		<FieldOfScience>Natural Resources and Conservation</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dj8afwaycl7r</InstitutionID>
		<FieldOfScienceID>3.0301</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1707378612</ID>
		<Name>NOAA_Fisch</Name>
		<Description>My research aims to improve population models of fisheries resources so as to better facilitate seafood sustainability and our understanding of marine and freshwater populations. This involves the development of highly-parameterized non linear models requiring numerical solutions and numerical integration.  
</Description>
		<PIName>Nicholas Fisch</PIName>
		<Organization>National Oceanic and Atmospheric Administration</Organization>
		<Department>National Marine Fisheries Service</Department>
		<FieldOfScience>Natural Resources and Conservation</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dj8afwaycl7r</InstitutionID>
		<FieldOfScienceID>03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>193312816</ID>
		<Name>NOAA_Jech</Name>
		<Description>NOAA Fisheries mission is to manage sustainable fisheries, conserve protected marine species, and maintain healthy ecosystems in U.S. waters through science-based management and conservation. We collect data during standardized surveys on research cruises from Cape Hatteras to the Canadian Scotian Shelf. https://www.fisheries.noaa.gov/about/northeast-ecosystems-surveys</Description>
		<PIName>Michael Jech</PIName>
		<Organization>National Oceanic and Atmospheric Administration</Organization>
		<Department>NEFSC - Population &amp; Ecosystems Monitoring &amp; Analysis Division - Ecosystems Surveys</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dj8afwaycl7r</InstitutionID>
		<FieldOfScienceID>03.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>454366603</ID>
		<Name>NOAA_Syslo</Name>
		<Description>The project uses a management strategy evaluation simulation framework to assess the implications of managing a multi-species complex of deep slope bottom fishes around Hawaii as a single stock.</Description>
		<PIName>John Syslo</PIName>
		<Organization>National Oceanic and Atmospheric Administration</Organization>
		<Department>Pacific Islands Fisheries Science Center</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dj8afwaycl7r</InstitutionID>
		<FieldOfScienceID>03.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1406503170</ID>
		<Name>NOAA_Vincent</Name>
		<Description>General research into improvement of fisheries stock assessment methods.</Description>
		<PIName>Matthew Vincent</PIName>
		<Organization>National Oceanic and Atmospheric Administration</Organization>
		<Department>Southeast Fisheries Science Beaufort Lab</Department>
		<FieldOfScience>Natural Resources and Conservation</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dj8afwaycl7r</InstitutionID>
		<FieldOfScienceID>03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>550122702</ID>
		<Name>NOIRLab_Zhang</Name>
		<Description>Processing astronomical images from the Dark Energy Camera on the Blanco telescope for various research analyses. Perform scientific analyses on  clusters of galaxies, features of massive galaxies, and measurements of weak gravitational lensing. Webpage: https://sites.google.com/view/astro-ynzhang/research</Description>
		<PIName>Yuanyuan Zhang</PIName>
		<Organization>NOIR Lab</Organization>
		<Department>Community Science and Data Center</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yeb48hoddvuh</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1615717190</ID>
		<Name>NRAO_2022_Bhatnagar</Name>
		<Description>Research related to its operation of its high-sensitivity radio telescopes for use by scientists around the world.</Description>
		<PIName>Sanjay Bhatnagar</PIName>
		<Organization>National Radio Astronomy Observatory</Organization>
		<Department></Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2vy8kkzhno9o</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1559122107</ID>
		<Name>NRAO_Bhatnagar</Name>
		<Description>Research related to its operation of its high-sensitivity radio telescopes for use by scientists around the world.</Description>
		<PIName>Sanjay Bhatnagar</PIName>
		<Organization>National Radio Astronomy Observatory</Organization>
		<Department></Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2vy8kkzhno9o</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>30</ID>
		<Name>NRELMatDB</Name>
		<Description>Ab initio calculation of the physical properties of 10^4 to 10^6 materials, database of results, and web site for access.</Description>
		<PIName>Peter Graf</PIName>
		<Organization>National Renewable Energy Laboratory</Organization>
		<Department>Computational Science Center</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/5eamxxwzykgj</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>850</ID>
		<Name>NSDF</Name>
		<Description>Project for the National Science Data Fabric's investigations of the Open Science Data Federation, and other data movement within the OSG Consortium.</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1416814250</ID>
		<Name>NSHE_SCS</Name>
		<Description>Group for University of Nevada staff members to explore the OSPool</Description>
		<PIName>Zachary Newell</PIName>
		<Organization>Nevada System of Higher Education</Organization>
		<Department>System Computing Services Group</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qg1h77zyr2wl</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>180</ID>
		<Name>NSLS2ID</Name>
		<Description>Using magnetic field measurements taken in the lab of undulators and wigglers we will compute the downstream photon spectrum and distributions for many configurations of many of the NSLS2 insertion devices, including wavefront propagation and beamline simulation where needed.</Description>
		<PIName>Dean Andrew Hidas</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>National Synchrotron Light Source II</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>305</ID>
		<Name>NSNM</Name>
		<Description>This model uses Matlab parallel programming to predict noise sensitive neuronal model.</Description>
		<PIName>Vadim Apalkov</PIName>
		<Organization>Georgia State University</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ybl3snr9pbs1</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>52</ID>
		<Name>NWChem</Name>
		<Description>The goal of this work is to provide a federated heterogeneous infrastructure that can be federated on demand for scientists and scientific applications.  The goal of this work is to integrate OSG as a part of the federated infrastructure cloud. The federation leverages the CometCloud software, currently being developed at Rutgers University. NWChem is the initial application to be used on OSG resources. A parallel in time algorithm will run multiple NWChem instances on the OSG resources, where each instance has different input parameters. The collective output of all instances is then gathered and analyzed.</Description>
		<PIName>Manish Parashar</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Electrical &amp; Computer Engineering</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1050359447</ID>
		<Name>NWMissouri_2023_Chakraborty</Name>
		<Description>Photon and particle impact spectroscopy of atoms, fullerenes, endofullerenes, buckyonions, and metallic nanoparticles; Ultrafast attosecond and intercoulombic decay (ICD) processes in the above systems; Charge transfer in ion–nanostructured surface interactions</Description>
		<PIName>Himadri Chakraborty</PIName>
		<Organization>Northwest Missouri State University</Organization>
		<Department>Natural Sciences</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iehnhhh561io</InstitutionID>
		<FieldOfScienceID>30.9999c</FieldOfScienceID>
	</Project>
	<Project>
		<ID>929820562</ID>
		<Name>NYCDSS_Staff</Name>
		<Description>Anomaly detection research across various cohorts based on user activity modeling.</Description>
		<PIName>Sathish Ningaiah</PIName>
		<Organization>New York City Department of Social Services</Organization>
		<Department>Human Resources Administration</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sg7tvfh0b232</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>778</ID>
		<Name>NYU_Fund</Name>
		<Description>Economics of telecommunications networks</Description>
		<PIName>Fraida Fund</PIName>
		<Organization>New York University</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Electrical, Electronic, and Communications Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hjcl6b3vh3ox</InstitutionID>
		<FieldOfScienceID>14.1</FieldOfScienceID>
	</Project>
	<Project>
		<ID>124</ID>
		<Name>NapusGenome</Name>
		<Description>Assembling the genome of a number of plant lines, and conducting RNASeq studies for the development of a transcriptome and differential expression analysis.</Description>
		<PIName>Joel Bader</PIName>
		<Organization>Johns Hopkins University</Organization>
		<Department>Department of Biomedical Engineering</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3fml5tx2uhe0</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>187</ID>
		<Name>NeoflAnnot</Name>
		<Description>Generation of a transcriptome for the copepod Neocalanus flamingeri in the gulf of Alaska.</Description>
		<PIName>Petra Lenz</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Pacific Biosciences Research Center</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>347</ID>
		<Name>NeurOscillation</Name>
		<Description>Our lab studies the rhythms of the brain, recorded electrically as oscillations in voltage. These brain rhythms have been hypothesized to underlie functional communication between different brain regions, but the mechanism by which it does this is not clear. Additionally, it is not clear from a biophysical standpoint how these oscillations are generated. Our lab studies both noninvasive and clinical recordings from human subjects and patients in order to better understand these rhythms of the brain. For example, the project contact's personal research investigates the variations in the waveform shape of neural oscillations. Why are some oscillations nonsinusoidal (e.g. sawtooth), how does this impact neural communication, and how does this relate to high-level behaviors?</Description>
		<PIName>Bradley Voytek</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Cognitive Science</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>643</ID>
		<Name>NeuroscienceGateway</Name>
		<Description>Neuroscience Gateway (NSG)</Description>
		<PIName>Amit Majumdar</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.1501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>447909116</ID>
		<Name>NichollsState_Whitaker</Name>
		<Description>Use genetic and epigenetic approaches to answer ecological and evolutionary questions with a specific interest in applications to conservation and management of species</Description>
		<PIName>Justine Whitaker</PIName>
		<Organization>Nicholls State University</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3ksr8posuc81</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>398</ID>
		<Name>Nipyperegtest</Name>
		<Description>Regression testing of various brain imaging tools</Description>
		<PIName>Satrajit Ghosh</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>McGovern Institute for Brain Research</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1988434100</ID>
		<Name>Northeastern_Han</Name>
		<Description>Dr. Han and his lab focus on developing novel statistical and machine learning methods to leverage real-world data to improve decision-making, with a focus on public health and clinical medicine. This includes designing robust, efficient, and targeted estimators for learning causal effects using large-scale data generated from observational studies and randomized trials.</Description>
		<PIName>Larry Han</PIName>
		<Organization>Northeastern University</Organization>
		<Department>Department of Public Health and Health Sciences</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/454t2lfhcfpp</InstitutionID>
		<FieldOfScienceID>27.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>723</ID>
		<Name>Northeastern_RC</Name>
		<Description>NU RC serves the university’s entire research community and helps facilitate access to HPC resources either on premise or in the cloud.</Description>
		<PIName>Raphael Schroter</PIName>
		<Organization>Northeastern University</Organization>
		<Department>Information Technology Services - Research Computing</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/454t2lfhcfpp</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1641205376</ID>
		<Name>NorthwesternMed_Yadav</Name>
		<Description>Monte Carlo simulations of the Boltzmann radiation transport equation to investigate radiation absorbed dose delivered from megavoltage linear accelerators. </Description>
		<PIName>Poonam Yadav</PIName>
		<Organization>Northwestern Medicine</Organization>
		<Department>Department of Radiation Oncology</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/awdbxa8mc2yw</InstitutionID>
		<FieldOfScienceID>51.2205</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1610402708</ID>
		<Name>Northwestern_Beckman</Name>
		<Description>This project develops a scalable, AI-powered image search system for the Sage national-scale edge computing cyberinfrastructure, enabling semantic retrieval across our database of sensor images. The system integrates AI models for captioning and embedding, hybrid vector/keyword search, and reranking to support scientific analysis in domains such as ecology and atmospheric science. More details are available at https://sagecontinuum.org/labs/image-search</Description>
		<PIName>Peter Beckman</PIName>
		<Organization>Northwestern University</Organization>
		<Department>Northwestern + Argonne Institute for Scientific and Engineering Excellence (NAISE)</Department>
		<FieldOfScience>Advanced Scientific Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/5vvknn2bzgvt</InstitutionID>
		<FieldOfScienceID>11.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>495</ID>
		<Name>Nova</Name>
		<Description>Project entry corresponding to the Nova VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1460430150</ID>
		<Name>OHSU_Katamreddy</Name>
		<Description>Cardiovascular disease occurs due to environmental factors like diet,  exercise but also due to genetic predisposition.  I want to work on finding genetic pathways that underlie the genesis cardiovascular disease.  Please find link to my previous work on cardiovascular disease and medicine. ‪ Adarsh Katamreddy‬ - ‪Google Scholar‬
</Description>
		<PIName>Adarsh Katamreddy</PIName>
		<Organization>Oregon Health &amp; Science University</Organization>
		<Department>Cardiovascular Medicine</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/90btatj2meqd</InstitutionID>
		<FieldOfScienceID>26.0907</FieldOfScienceID>
	</Project>
	<Project>
		<ID>518</ID>
		<Name>ORISSWarp</Name>
		<Description>Using Warp to model ORISS to investigate the effects of intense space charge on the charged particle optics</Description>
		<PIName>Steve Lund</PIName>
		<Organization>Facility for Rare Isotopes Beams (FRIB)</Organization>
		<Department>Accelerator Systems</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e4p2um2dwe4j</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2</ID>
		<Name>OSG-CSC00100</Name>
		<Description>Develop a metric that measures the real similarities and differences between machine learning algorithms (in this case classifiers) based on output behavior.  Previous study included 17 representative algorithms and used 30 datasets from the UCI Machine Learning Repository.  The main goal of the current effort is to extend the metric using semi-supervised learning techniques. I would also like, if possible, to experiment with more recent datasets beyond what is traditional from the UCI Repository; and to add more algorithms to the study.</Description>
		<PIName>George Rudolph</PIName>
		<Organization>The Citadel</Organization>
		<Department>Mathematics and Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jo5m3av5h4i9</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>6</ID>
		<Name>OSG-Staff</Name>
		<Description>Integration and testing of science applications for new users</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>OSG</Organization>
		<Department>Computing Sector</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations>
			<ResourceAllocation>
				<Type>XRAC</Type>
				<SubmitResources>
					<SubmitResource>CHTC-XD-SUBMIT</SubmitResource>
					<SubmitResource>UChicago_OSGConnect_login04</SubmitResource>
					<SubmitResource>UChicago_OSGConnect_login05</SubmitResource>
				</SubmitResources>
				<ExecuteResourceGroups>
					<ExecuteResourceGroup>
						<GroupName>TACC-Stampede2</GroupName>
						<LocalAllocationID>TG-DDM160003</LocalAllocationID>
					</ExecuteResourceGroup>
				</ExecuteResourceGroups>
			</ResourceAllocation>
		</ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>89</ID>
		<Name>OSGOpsTrain</Name>
		<Description>Training project for OSG Operations staff.</Description>
		<PIName>Rob Quick</PIName>
		<Organization>Open Science Grid</Organization>
		<Department>GOC</Department>
		<FieldOfScience>Community Grid</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1329542929</ID>
		<Name>OSGUserSchool2022</Name>
		<Description>Group for OSG User School 2022 participants</Description>
		<PIName>Tim Cartwright</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>806</ID>
		<Name>OSGUserTrainingPilot</Name>
		<Description>User training</Description>
		<PIName>Christina Koch</PIName>
		<Organization>Open Science Grid</Organization>
		<Department>OSGConnect</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1875355523</ID>
		<Name>OSG_OSGUS24</Name>
		<Description>Work run by participants in the 2024 OSG School</Description>
		<PIName>Tim Cartwright</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1691622291</ID>
		<Name>OSG_OSGUS25</Name>
		<Description>Work run by participants in the 2025 OSG School</Description>
		<PIName>Tim Cartwright</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1942455935</ID>
		<Name>OSG_SoftwareInventory</Name>
		<Description>OSG Security Team collaboration group currently working on building a worker node scanning tool. They are using OSG Connect for testing this tool. This group of researchers will likely evolve over time, as will their projects and collaborations. As of October 2024, Mike Stanfield is a point of contact.</Description>
		<PIName>Mark Krenz</PIName>
		<Organization>OSG</Organization>
		<Department>Computing Sector (OSG Security Team)</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>43.0404</FieldOfScienceID>
	</Project>
	<Project>
		<ID>480</ID>
		<Name>OSURHIT</Name>
		<Description>Experimentally calibrated event-by-event simulations of high-energy heavy-ion collisions. Numerical implementation of optimized dissipative relativistic fluid dynamics.</Description>
		<PIName>Ulrich Heinz</PIName>
		<Organization>Ohio State University</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>200596498</ID>
		<Name>OSU_Furnstahl</Name>
		<Description>BAND collaboration (https://bandframework.github.io) - developing advanced statistical methods to quantify uncertainties in model-data comparisons and predictions. Simulating heavy-ion collisions at RHIC and LHC to study the evolution of nuclear matter under extreme conditions.</Description>
		<PIName>Richard Furnstahl</PIName>
		<Organization>The Ohio State University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1342591312</ID>
		<Name>OSU_Theisen</Name>
		<Description>We are creating an automated, user-friendly RNA-Seq pipeline addressing challenges of standardization and reproducibility. It features a point-and-click interface for non-experts and is publicly available in github. https://www.biorxiv.org/content/10.1101/2024.12.20.629844v1</Description>
		<PIName>Emily Theisen</PIName>
		<Organization>The Ohio State University</Organization>
		<Department>Childhood Cancer Research</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>832</ID>
		<Name>OSU_Weinberg</Name>
		<Description>The project is about analyzing behaviors and primitives of market participants so that we can quantify effects coming from the changes in market competition, structure, policies, etc.</Description>
		<PIName>Matthew Weinberg</PIName>
		<Organization>The Ohio State University</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>19.0402</FieldOfScienceID>
	</Project>
	<Project>
		<ID>458</ID>
		<Name>OTPCand0vbb</Name>
		<Description>PSEC group at the University of Chicago is developing Large-Area Picosecond Photo-Detectors (LAPPDs). By reconstructing the arrival position and time of photons produced in water or liquid scintillator on highly segmented fast photo-detectors such as LAPPDs one can reconstruct tracks by using the `drift time' of photons, much as one does
with electrons in a Time Projection Chamber. We are developing new event reconstruction techniques for large water and liquid scintillator detectors. For example see A. Elagin et al., “Separating Double-Beta Decay Events from Solar Neutrino Interactions in a Kiloton-Scale Liquid Scintillator Detector by Fast Timing”, Nucl. Instr. Meth. Phys. Res. A849 (2017) 102.</Description>
		<PIName>Henry Frisch</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1919669415</ID>
		<Name>OU_2023_Wang</Name>
		<Description>This project is focused on computational simulations of materials chemistry, physics and engineering with an emphasis on nanoscale materials, using density functional theory (DFT) calculations and molecular dynamics simulations. In particular, we are interested in advanced energy materials and their applications in catalysis, molecular sensors, and energy conversion.</Description>
		<PIName>Bin Wang</PIName>
		<Organization>University of Oklahoma</Organization>
		<Department>School of Sustainable Chemical, Biological, and Materials Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xvsrc4eixk2g</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1417716994</ID>
		<Name>ObGyn_Ong</Name>
		<Description>Research is multidisciplinary, covering data mining, artificial intelligence, machine learning, probabilistic methods, dynamical models, inductive logic programming, and statistical relational learning with applications to biological and medical data. Particularly interested in the integration and analysis of clinical, genomics, transcriptomics, proteomics, immunome, metagenomics, metabolomics, and other molecular data especially as it pertains to precision medicine.</Description>
		<PIName>Irene Ong</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Obstetrics and Gynecology</Department>
		<FieldOfScience>Biostatistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0911</FieldOfScienceID>
	</Project>
	<Project>
		<ID>86</ID>
		<Name>Orbiter</Name>
		<Description>The goal of this project is to create farmed data in the form of classifications of discrete structures from mathematics. This data farm can be used to support discovery of new objects and constructions.</Description>
		<PIName>Anton Betten</PIName>
		<Organization>Colorado State University</Organization>
		<Department>Department of Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2aj5pa9etoc7</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>717</ID>
		<Name>OregonState_Simon</Name>
		<Description>Generation and Testing of Hypothetical Metal-Organic Frameworks</Description>
		<PIName>Cory Simon</PIName>
		<Organization>Oregon State University</Organization>
		<Department>Chemical, Biological and Environmental Engineering</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h0s7lk6vj9dn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1737252682</ID>
		<Name>OregonState_Staff</Name>
		<Description>Requesting access as a facilitator to demonstrate job submission to potential applicants.</Description>
		<PIName>Christopher Thompson</PIName>
		<Organization>Oregon State University</Organization>
		<Department>College of Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h0s7lk6vj9dn</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>61</ID>
		<Name>P0-LBNE</Name>
		<Description>LBNE will endeavor to perform precision measurements of key parameters pertaining to neutrino oscillations, advancing our understanding of some of the most fundamental issues in particle physics, such as neutrino mass hierarchy, nucleon decay and a few other others. The Software and Computing Organization of LBNE is tasked with providing core infrastructure for its Physics Tools development and data processing, which will need to accommodate the needs of a diverse and distributed research organization.</Description>
		<PIName>Maxim Potekhin</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>742721698</ID>
		<Name>PATh-Staff-Testing</Name>
		<Description>Test project for the PATh team.</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>88972564</ID>
		<Name>PATh_MLSupplement</Name>
		<Description>Project for the PATh supplement investigating impact of hetergenous resources on ML model training</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>364</ID>
		<Name>PBOSD</Name>
		<Description>Probability-based structural design has now emerged as the most advanced methodology to design new and retrofit existing structures in the face of uncertainty. The 
focus of our research lies at the intersection of the areas of structural engineering and risk engineering against natural hazards (e.g., earthquakes). A large number of computationally-demanding Finite Element simulation jobs need to 
be run as part of our research using open source software (e.g., OpenSees, Dakota) and script languages (e.g., Matlab, Python). Thus, the used of high-throughput computing resources will be central for the success of our potentially 
high-impact research on probability-based optimum structural design against natural hazards.</Description>
		<PIName>Yong Li</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Structural Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>14.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>369</ID>
		<Name>PCFOSGUCSD</Name>
		<Description>Work submitted as part of the physics computing facility (PCF) at the physics department at UCSD</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>4</ID>
				<Name>UCSD</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>516</ID>
		<Name>PNGtemplate</Name>
		<Description>This project aims at creating population-specific templates that target adolescent athletes, based on the T1-weighted images from Purdue Neurotrauma Group (PNG) longitudinal datasets.</Description>
		<PIName>Joseph Rispoli</PIName>
		<Organization>Purdue University</Organization>
		<Department>Biomedical Engineering</Department>
		<FieldOfScience>Medical Imaging</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oe09ae0p2pmj</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>334</ID>
		<Name>POLARBEAR</Name>
		<Description>The evolution of the universe is based on the idea of gravitational instability, whereby initial tiny fluctuations in the density of the Universe grew under the influence of gravity to form the large-scale gravitational structures we see around us today. These structures bend the trajectories of Cosmic Microwave Background photons through gravitational lensing, distorting its primordial polarization and converting divergent polarization patterns (E-modes) into curled polarization patterns (B-Modes). Imaging the lensing-generated B-modes, the POLARBEAR telescope will be able to shed light on all the components of the Universe influencing structure formation, such as neutrino mass and dark energy.</Description>
		<PIName>Brian Keating</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>786</ID>
		<Name>PRP</Name>
		<Description>The PRP is a partnership of more than 50 institutions, led by researchers at UC San Diego and UC Berkeley. The PRP builds on the optical backbone of Pacific Wave, a joint project of CENIC and the Pacific Northwest GigaPOP (PNWGP) to create a seamless research platform that encourages collaboration on a broad range of data-intensive fields and projects.</Description>
		<PIName>Thomas A. DeFanti</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Calit2</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>754</ID>
		<Name>PRP</Name>
		<Description>Machine Learning HTCondor submission from PRP Nautilus</Description>
		<PIName>Tom DeFanti</PIName>
		<Organization>Pacific Research Platform</Organization>
		<Department>Pacific Research Platform</Department>
		<FieldOfScience>Machine Learning/AI</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.0102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>335</ID>
		<Name>PRTH</Name>
		<Description>Modeling of Monte Carlo simulations (Geant4) in order to test many different parameters (collimator and shielding size, irradiation angles...) to define the best design for new medical nuclear treatment devices</Description>
		<PIName>Endre Takacs</PIName>
		<Organization>Clemson University</Organization>
		<Department>Astronomy and Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>435</ID>
		<Name>PSFmodeling</Name>
		<Description>We need to use Monte-Carlo simulation to obtain the point spread function (PSF) kernels to be incorporated into our image reconstruction algorithm for more accurate image reconstruction</Description>
		<PIName>Paul Vaska</PIName>
		<Organization>State University of New York at Stony Brook</Organization>
		<Department>Biomedical Engineering</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qqd2s2b6m7eh</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1109357763</ID>
		<Name>PSI_Kaib</Name>
		<Description>I will be using computer simulations to model the orbital evolution of comets and asteroids over the  lifetime of the solar system. In addition, I will be studying the stability of the solar system and Kuiper belt as it is subjected to close flybys of other stars in the Milky Way. https://www.psi.edu/about/staffpage/nkaib
</Description>
		<PIName>Nathan Kaib</PIName>
		<Organization>Planetary Science Institute</Organization>
		<Department>Planetary Science Institute</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rdbhaweq480i</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>698705291</ID>
		<Name>PSU_Anandakrishnan</Name>
		<Description>Penn State Ice and Climate Exploration is an interdisciplinary group of researchers from across the university dedicated to a better understanding of the cryosphere.</Description>
		<PIName>Sridhar Anandakrishnan</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Geosciences</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>772</ID>
		<Name>PSU_Chen</Name>
		<Description>Computing high-throughput thermodynamic properties and domain structures of lead-free ferroelectric materials and their heterostructures</Description>
		<PIName>Long-Qing Chen</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Materials Science and Engineering</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>443747465</ID>
		<Name>PSU_Kennea</Name>
		<Description>Swift BAT data to localize Gamma-ray Bursts</Description>
		<PIName>Jamie Kennea</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Department of Astronomy and Astrophysics</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1959580719</ID>
		<Name>PSU_Lynch</Name>
		<Description>OpenSimRoot is an open-source, 3D functional–structural plant model that simulates root system architecture 3 dimensionally, accounting for interactions between soil physical properties, root growth and associated metabolic costs thus enabling study of the value of root traits for resource acquisition and plant growth. As a research tool it supports experimental designs and mechanistic understanding of underlying processes. We aim to understand plant–soil interactions in a wide range of soil taxa, especially with respect to degraded soils in developing countries, in order to address the knowledge gap that is critical for global food security. https://plantscience.psu.edu/research/labs/roots/methods/computer-analysis-tools https://plantscience.psu.edu/research/labs/roots/publications/overviews/opensimroot-widening-the-scope-and-application-of-root-architectural-models https://rootmodels.gitlab.io/ </Description>
		<PIName>Jonathan  Lynch</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Plant Science</Department>
		<FieldOfScience>Plant Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>01.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1063922570</ID>
		<Name>PSU_Rechtsman</Name>
		<Description>Laboratory for emergent phenomena and technology in the optical sciences</Description>
		<PIName>Mikael Rechtman</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>764</ID>
		<Name>PSU_Staff</Name>
		<Description>Research computing staff at Penn State</Description>
		<PIName>Carrie Brown</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1951126972</ID>
		<Name>PSU_Yamamoto</Name>
		<Description>A machine learning-based 3D reconstruction of highly porous cement samples cured in a microgravity environment is being pursued. The approach follows a deep learning-based framework based on the solid texture synthesis method, widely adopted in the computer graphics community. Preliminary results https://doi.org/10.2514/6.2023-2025 showed promising results, and with increased computational resources, larger exemplars higher resolution will be used for 3D reconstruction.</Description>
		<PIName>Namiko Yamamoto</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Aerospace Engineering</Department>
		<FieldOfScience>Aerospace, Aeronautical, and Astronautical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>14.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1129754086</ID>
		<Name>PSU_Zhu</Name>
		<Description>Our research focuses on computational and data-driven approaches in clinical chemistry and translational laboratory medicine. The work involves analysis of large-scale biomedical datasets (including population-level cohorts), biomarker evaluation, and development of quantitative models to study disease associations and laboratory test performance.</Description>
		<PIName>Yusheng Zhu</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Pathology &amp; Laboratory Medicine</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>51.1401</FieldOfScienceID>
	</Project>
	<Project>
		<ID>306</ID>
		<Name>PTMC</Name>
		<Description>We are applying Monte Carlo particle transport codes to proton therapy treatment planning with the goal of reducing the uncertainty in the proton beam range in patient.</Description>
		<PIName>Derek Dolney</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Radiation Oncology</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>151</ID>
		<Name>PainDrugs</Name>
		<Description>Virtual screening for novel anesthetic compounds.</Description>
		<PIName>Pei Tang</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Anesthesiology</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>581</ID>
		<Name>PanEn</Name>
		<Description>Parallel Analog Ensemble (PAnEn) is a parallel implementation for the Analog Ensemble (AnEn) technique which generates uncertainty information for a deterministic predictive model.</Description>
		<PIName>Guido Cervone</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Geography</Department>
		<FieldOfScience>Geography</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>45.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>193</ID>
		<Name>Paniceae-trans</Name>
		<Description>Processing of Transcriptome data from many species across the grass tribe Paniceae</Description>
		<PIName>Jacob Washburn</PIName>
		<Organization>University of Missouri</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dohu2f6ba08u</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>25</ID>
		<Name>PathSpaceHMC</Name>
		<Description>The goal of this research is to develop a computational tool that can uncover the pathway and the transition states that exist when a molecule changes conformation or when it chemically changes. In many such circumstances, a process must overcome an energy barrier before proceeding to completion. If the size of the barrier is large compared to the available thermal energy, a process must rely on the occurrence of one or more rare events. For such circumstances, one would like to understand the reaction pathways so as to improve yields, or as in the case of protein folding, to understand the intermediate states. Many simple processes have been explored using theoretical tools such as molecular dynamics, where the movements of individual atoms are calculated. However, when the barrier is large, crossing the relevant barrier is indeed a very rare event. Although computer speeds have been doubling every 18 months (a consequence of Moore's law), the exponentially long waiting times necessary for barrier hopping pushes the required computational effort out of the feasibility range for all but the simplest models. To explore these barrier-limited processes, we are developing a novel computational technique to sample the paths themselves in a thermodynamically significant manner.</Description>
		<PIName>Frank Pinski</PIName>
		<Organization>University of Cincinnati</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/52f5piuly2gg</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>194</ID>
		<Name>PegasusTraining</Name>
		<Description>Project used for Pegasus tutorials and training</Description>
		<PIName>Mats Rynge</PIName>
		<Organization>University of Southern California</Organization>
		<Department>ISI</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>9</ID>
				<Name>ISI</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>835</ID>
		<Name>PennState_Hanna</Name>
		<Description>Detection of gravitational waves from compact binary sources</Description>
		<PIName>Chad Hanna</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>642</ID>
		<Name>PercARsolar</Name>
		<Description>Project entails the participation of a number of students in a graduate level class in running a code that simulates the evolution of solar active regions as a percolation phenomenon. A number of students will continue the research as part of their Master's thesis at Chicago State University. Computationally, the project builds upon work done previously by Seiden and Wentzel, by adding a new algorithm in tracking the polarity of the magnetic field structures on the solar photosphere. Requirements for the project is python version 3+. Typical single core walltime of each job is 1 hour for a modest resolution of a 2D grid. Upper limit of walltime is about 3 hours for the highest resolution consistent with the limitations of the algorithm.The project seeks to determine the steady state of the solar cycle by varying the emergence and diffusion probability parameters of magnetic flux tubes. The percolation engine is inherently chaotic and finely tuned values for these parameters are sought in a sweep of the probability space through a large volume of jobs.</Description>
		<PIName>Pascal Paschos</PIName>
		<Organization>Chicago State University</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mgbbuoiqiwpe</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>333</ID>
		<Name>Perchlorate</Name>
		<Description>Assessment of costs and environmental impacts of drinking water technologies for the removal of perchlorate</Description>
		<PIName>Justin M Hutchison</PIName>
		<Organization>University of Illinois</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/y691qclum4cv</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>542834173</ID>
		<Name>Pharmacy_Kwan</Name>
		<Description>The Kwan lab uses culture-independent (metagenomic) sequencing and molecular biology to understand how and why bioactive small molecules are produced by bacteria. </Description>
		<PIName>Jason Kwan</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Pharmacy</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51.2003</FieldOfScienceID>
	</Project>
	<Project>
		<ID>59</ID>
		<Name>Pheno</Name>
		<Description>The goal of this project is to test and validate the Sherpa
and Blackhat software for particle physics phenomenology at the
Large Hadron Collider (LHC), and to perform studies which are directly
applicable to physics analyses in the LHC experiments ATLAS and CMS.

Sherpa is a complete Monte-Carlo event generation framework
for collider experiments. Hard scattering events are simulated
using perturbative QCD at the leading or the next-to-leading
order with the help of BlackHat. QCD Resummation is implemented
by an in-house parton shower model based on the dipole factorization
approach. Hadronization is performed in a cluster model and
a complete hadron decay simulation is included in the program.

BlackHat is a program library to compute virtual corrections
in perturbative QCD based on generalized unitarity methods.
It is used to produce particle-level cross sections for
phenomenologically relevant signal and background reactions
of high particle multiplicity at the Large Hadron Collider.

Recent progress achieved with the combination of BlackHat and
Sherpa is described at 
  https://twiki.grid.iu.edu/bin/view/Management/Nov2012Newsletter#Precision_Event_Simulation_for_t</Description>
		<PIName>Stefan Hoeche</PIName>
		<Organization>SLAC National Accelerator Laboratory</Organization>
		<Department>Theory Group</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gsbt8law2xf0</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>178</ID>
		<Name>Phylo</Name>
		<Description>In this project, we design, implement, and test new methods for phylogenomics analyses. The goal of phylogenomics, as used here, is to estimate a species tree from genomic data. The ultimate goal of this line of research is reconstructing the tree of life.</Description>
		<PIName>Siavash Mirarab</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>157</ID>
		<Name>Phylogenomics</Name>
		<Description>The project entails the sequencing and assembly of the transcriptomes of 100+ non-model tree species from the USA and China. This information is then used to infer a functional phylogenomic tree from which inferences regarding functional similarity and species co-existence and diversity are drawn.</Description>
		<PIName>Nathan G Swenson</PIName>
		<Organization>University of Maryland</Organization>
		<Department>Department of Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h5syhdikri9a</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1774953417</ID>
		<Name>Physics_Joynt</Name>
		<Description>The Joynt research group works in a number of different areas of theoretical physics, but particularly in quantum computing and condensed matter physics.</Description>
		<PIName>Robert Joynt</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2038770323</ID>
		<Name>Physics_Soley</Name>
		<Description>https://www.physics.wisc.edu/directory/soley-micheline/</Description>
		<PIName>Micheline Soley</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0802</FieldOfScienceID>
	</Project>
	<Project>
		<ID>532433932</ID>
		<Name>Physino_Liu</Name>
		<Description>Sharing GEANT4 and related datasets in both the Liu research group (at University of South Dakota) and with collaborators at national labs.</Description>
		<PIName>Jing Liu</PIName>
		<Organization>University of South Dakota</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Particle Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/it45nx81xgfl</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1422338289</ID>
		<Name>Pitt_Aizenstein</Name>
		<Description>We are applying novel machine learning methods to predict late life depression treatment response using neuroimaging data. We would utilize the computing resources to preprocess large amounts of neuroimaging data.</Description>
		<PIName>Howard Aizenstein</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Department of Bioengineering</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26.0102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1879435385</ID>
		<Name>Pitt_Han</Name>
		<Description>Our research focuses on collider phenomenology, studying phenomena at the LHC and future colliders such as the FCC-ee, FCC-hh, and the muon collider. We aim to test the predictions of the Standard Model (SM) and search for potential new physics beyond the SM. To achieve this, we rely on Monte Carlo simulations to generate and analyze high-energy collision events, enabling us to explore both established theories and new physics scenarios.</Description>
		<PIName>Tao Han</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>626</ID>
		<Name>Pitt_Koes</Name>
		<Description>Deep Learning for Drug Discovery</Description>
		<PIName>David Ryan Koes</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Department of Computational and Systems Biology</Department>
		<FieldOfScience>Physical Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>544</ID>
		<Name>PixleyLab</Name>
		<Description>Condensed matter theory including quantum phase transitions of many-body systems</Description>
		<PIName>Jedediah Pixley</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>31</ID>
		<Name>PlantBio</Name>
		<Description>Investigation of plant-pathogen interactions using genome-wide association mapping.</Description>
		<PIName>Joy Bergleson</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Ecology and Evolution</Department>
		<FieldOfScience>Plant Biology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>26.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1905181855</ID>
		<Name>PlantPathology_Gluck-Thaler</Name>
		<Description>Our mission is to understand the origins and outcomes of fungal interactions that threaten plant and human health.</Description>
		<PIName>Emile Gluck-Thaler</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Plant Pathology</Department>
		<FieldOfScience>Plant Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0305</FieldOfScienceID>
	</Project>
	<Project>
		<ID>388874330</ID>
		<Name>PlantPathology_SolisLemus</Name>
		<Description>We work to develop statistical models to answer biological questions, balancing biological interpretability, theoretical guarantees, and computational tractability.</Description>
		<PIName>Claudia Solis-Lemus</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Plant Pathology</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>27.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>443</ID>
		<Name>PopDy</Name>
		<Description>Population dynamics across all species including human being. The life history, energy consumption, mortality pattern, and evolution paths and directions.</Description>
		<PIName>Shripad Tuljapurkar</PIName>
		<Organization>Stanford University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>520</ID>
		<Name>PorousMaterials</Name>
		<Description>Calculating adsorption properties for porous materials using Monte Carlo algorithms or simulating Henry constants using Widom insertions. This is accomplished using a Julia code our group has developed, PorousMaterials.jl</Description>
		<PIName>Cory Simon</PIName>
		<Organization>Oregon State University</Organization>
		<Department>Chemical, Biological and Environmental Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h0s7lk6vj9dn</InstitutionID>
		<FieldOfScienceID>14.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>666</ID>
		<Name>PortlandState_Feng</Name>
		<Description>Vulnerable Ethereum Smart Contract Registry</Description>
		<PIName>Wu-chang Feng</PIName>
		<Organization>Portland State University</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26b8vvvqixd6</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>140483721</ID>
		<Name>PortlandState_OIT</Name>
		<Description>Office of information technology staff at PDX</Description>
		<PIName>Gary Sandine</PIName>
		<Organization>Portland State University</Organization>
		<Department>OIT</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26b8vvvqixd6</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1079626152</ID>
		<Name>PortlandState_Venkatachalapa</Name>
		<Description>Conducting graduate thesis research on an evolutionary game-theoretic model in which games are played sequentially amongst a large population of agents distributed over various social network structures. The goal of this research is to characterize the population-level social dynamics of the system as social "norms" shift to different meta-stable equilibria.</Description>
		<PIName>Rajesh Venkatachalapathy</PIName>
		<Organization>Portland State University</Organization>
		<Department>Complex Systems</Department>
		<FieldOfScience>Social Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26b8vvvqixd6</InstitutionID>
		<FieldOfScienceID>45.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>319</ID>
		<Name>PreBioEvo</Name>
		<Description>We use simulations Kauffman-like model to study the probability of life forming on other planets. This project is supported by a NASA grant and is part of their Astrobiology mission.
Reference: A. Wynveen, I. Fedorov, and J. W. Halley, Nonequilibrium steady states in a model for prebiotic evolution, Physical Review E 89 , 022725 (2014)
We use simulations of a Kauffman-like model for prebiotic evolution to find the probabilities of lifelike steady states and study their properties.  This project is supported by a NASA grant.

References:
A. Wynveen, I. Fedorov, and J. W. Halley, Nonequilibrium steady states in a model for prebiotic evolution, Physical Review E 89 , 022725 (2014) (https://doi.org/10.1103/PhysRevE.89.022725)

B. F. Intoy, A. Wynveen, and J. W. Halley, Effects of spatial diffusion on nonequilibrium steady states in a model for prebiotic evolution, Physical Review E 94 , 042424 (2016) (https://doi.org/10.1103/PhysRevE.94.042424)</Description>
		<PIName>J. Woods Halley</PIName>
		<Organization>University of Minnesota</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3chofmlz7p5r</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1698844716</ID>
		<Name>Princeton_Hasling</Name>
		<Description>An interdisciplinary institute designed to bring together faculty and researchers from diverse backgrounds leveraging their broad expertise to address new and relevant computational problems and thereby contribute to the body of scientific knowledge. PICSciE provides state-of-the-art computing and visualization facilities in collaboration with Research Computing, academic departments, and institutional partners.</Description>
		<PIName>William Hasling</PIName>
		<Organization>Princeton University</Organization>
		<Department>Research Computing Department</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ao845i5pul3m</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>48328218</ID>
		<Name>Princeton_Jamieson</Name>
		<Description>studying channel modeling using AI/ML techniques.  Ray tracing and improving upon 3GPP standardized channel models are our goals.
</Description>
		<PIName>Kyle Jamieson</PIName>
		<Organization>Princeton University</Organization>
		<Department>Princeton Advanced Wireless Systems Lab</Department>
		<FieldOfScience>Electrical, Electronic, and Communications</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ao845i5pul3m</InstitutionID>
		<FieldOfScienceID>14.1</FieldOfScienceID>
	</Project>
	<Project>
		<ID>174</ID>
		<Name>ProbTracx</Name>
		<Description>Graph theory analyses would be investigated on weighted undirected matrices based on the probability of white matter connectivity between 26 regions comprising both cortical and subcortical structures on children with epilepsy with and without anxiety disorders. This project aims at investigating if there are fundamental differences in structural connectivity in children with idiopathic epilepsy with and without anxiety comorbidity. The neuropsychological implications of potential differences between groups would also be investigated.</Description>
		<PIName>Dr. Bruce P. Hermann</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Neurology</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>139</ID>
		<Name>ProtEvol</Name>
		<Description>How large a role does history play in evolution? Do later events depend critically on specific earlier events, or do all events occur more or less independently? If a change occurs early in evolution, does it become easier or harder to revert the change as time proceeds? We intend to explore these ideas in the context of protein evolution, by simulating sequence evolution under purifying selection and then systematically permuting the order of amino-acid substitutions.</Description>
		<PIName>Premal Shah</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>95</ID>
		<Name>ProtFolding</Name>
		<Description>Study statistical machine learning and optimization algorithms for data-driven protein structure prediction, by learning sequence-structure relationship from existing protein sequence and structure data.</Description>
		<PIName>Jinbo Xu</PIName>
		<Organization>Toyota Technological Institute at Chicago</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hgmyhtpshdy9</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>87</ID>
		<Name>Proteomics</Name>
		<Description>Bioinformatics methods for different proteomic applications in life sciences. Algorithm development for improving
mass-spectrometry based proteomic techniques.</Description>
		<PIName>Sam Volchenboum</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1798106356</ID>
		<Name>Psychology_Curtin</Name>
		<Description>https://arc.psych.wisc.edu/</Description>
		<PIName>John Curtin</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Other Social Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>42.2813</FieldOfScienceID>
	</Project>
	<Project>
		<ID>121406492</ID>
		<Name>Psychology_Rogers</Name>
		<Description>We are interested in understanding human semantic memory: our store of knowledge about the meanings of words, objects and events. Specifically, we would like to understand how semantic knowledge is represented and processed in the mind and brain, how it is acquired throughout development, how semantic tasks are performed by healthy adults and experts, and how various forms of brain damage can disrupt semantic knowledge. We address these questions using computer models, functional neuroimaging, and behavioral studies.</Description>
		<PIName>Timothy Rogers</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1599b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>844</ID>
		<Name>Purdue_Aggarwal</Name>
		<Description>Our labs works towards developing efficient machine learning algorithms for real-world problems. Some of the applications that we focus on are social influence maximization, recommender systems, and ride-sharing and goods delivery.</Description>
		<PIName>Vaneet Aggarwal</PIName>
		<Organization>Purdue University</Organization>
		<Department>Industrial Engineering</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oe09ae0p2pmj</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>819394515</ID>
		<Name>Purdue_Pienaar</Name>
		<Description>Our systems pharmacology approach constructs multi-scale, hybrid computational models that describe host immune, pathogen and drug dynamics within an infected patient. In close collaborations with experimentalists, we integrate these computational models with multiple in vitro and in vivo datasets to: predict drug efficacy, optimize treatment, identify new drug targets, and inform future experiments; all in the context of complex host-pathogen-drug interactions.</Description>
		<PIName>Elsje Pienaar</PIName>
		<Organization>Purdue University West Lafayette</Organization>
		<Department>Biomedical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/y2m2tk3a8pp6</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1851111814</ID>
		<Name>Purdue_Sharma</Name>
		<Description>Investigating protein-protein interactions related to the human immune system. Other projects include immune protein-drug interactions. We mainly use molecular dynamics simulations and molecular coking methodologies for our study. </Description>
		<PIName>Arjun Sharma</PIName>
		<Organization>Purdue University Fort Wayne</Organization>
		<Department>Department of Chemistry and Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dgsgv9qbvgce</InstitutionID>
		<FieldOfScienceID>40.0511</FieldOfScienceID>
	</Project>
	<Project>
		<ID>619</ID>
		<Name>QCArchive_Smith</Name>
		<Description>The compute will be used for community facing data. This will include generating data for open AI datasets and computing molecules for undergraduate education.</Description>
		<PIName>Daniel G. A. Smith</PIName>
		<Organization>Virginia Tech University</Organization>
		<Department>Molecular Sciences Software Institute</Department>
		<FieldOfScience>Physical Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6oylis0t2x6u</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>186</ID>
		<Name>QEvolBiol</Name>
		<Description>Quantitative approaches to evolutionary biology including numerical analysis of mathematical models of evolutionary change and individually-based simulations of population dynamics, mutation, natural selection, and other evolutionary forces.</Description>
		<PIName>Jeremy Van Cleve</PIName>
		<Organization>University of Kentucky</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological and Critical Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/532yhevnxlxc</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>348</ID>
		<Name>QGIS</Name>
		<Description>This project is created to explore QGIS and analyze solar suitability in South Carolina.</Description>
		<PIName>Patricia Carbajales-Dale</PIName>
		<Organization>Clemson University</Organization>
		<Department>Clemson Center for Geospatial Technologies</Department>
		<FieldOfScience>Geographic Information Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>45.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1873230993</ID>
		<Name>QLHC_Chapple</Name>
		<Description>Researching ways to optimize our clinical trials from a statistical methodology standpoint. This includes ensuring that more patients can receive active experimental drugs that show promise, minimizing patient exposure to experimental drugs that are not working well, and also maximizing the likelihood of graduating experimental drugs that truly improve patient outcomes. This may require development of new statistical methodologies which are validated via simulation. More information about QLHC can be found here: https://www.quantumleaphealth.org/</Description>
		<PIName>Andrew Chapple</PIName>
		<Organization>Quantum Leap Healthcare Collaborative</Organization>
		<Department>Biometrics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v6rhf2mqq4rb</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>357</ID>
		<Name>QMC</Name>
		<Description>Our project uses Quantum Monte Carlo (QMC) methods for energy calculations on molecular systems of interest.</Description>
		<PIName>Andrew Powell</PIName>
		<Organization>Missouri University of Science and Technology</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/a5fyyhl121i9</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>447</ID>
		<Name>QuantEvol</Name>
		<Description>Simulations of evolution of quantitative characters in finite populations</Description>
		<PIName>Shripad Tuljapurkar</PIName>
		<Organization>Stanford University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>54</ID>
		<Name>RADICAL</Name>
		<Description>RADICAL: SAGA / BigJob

OSG / XSEDE interoperability and Python APIs for OSG / Condor / iRODS.</Description>
		<PIName>Shantenu Jha</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>29</ID>
		<Name>RDCEP</Name>
		<Description>Robust Decision Making on Climate and Energy Policy (RDCEP)

The Center for Robust Decision Making on Climate and Energy Policy conducts research in four main areas:

* Improving the fidelity of models used to forecast the impact of policies on future economic and climatic conditions. Many of the most decision-relevant aspects of climate and energy policy - for example, climate impacts and technological advances - are poorly or not at all represented in current policy analysis tools. The Center will build representations of the most important processes and increase model detail and resolution.
* Quantifying sensitivities and uncertainties in the parameters, processes, and impacts in models. RDCEP will develop methods to characterize the dependence of model output on input, parameter, and model uncertainty; incorporate these uncertainties in models; and study how to communicate probabilistic model output to decision makers.
* Identifying robust decisions in the face of uncertainty. The best policy is not necessarily that which produces the maximum return if all assumptions made are borne out, but the one that balances return and risk in the face of many uncertainties. The Center will develop models to identify robust strategies that perform well over a wide range of scenarios.
* Developing improved computational methods and numerical methods required to achieve these goals. New parallel stochastic dynamic programming, robust optimal control, and numerical optimization methods able to make full use of modern supercomputers will allow tools developed at the Center to incorporate sectoral and process detail and explore uncertainty, in ways not previously possible.</Description>
		<PIName>Ian Foster</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>52.1304</FieldOfScienceID>
	</Project>
	<Project>
		<ID>346</ID>
		<Name>REDTOP</Name>
		<Description>High intensity frontier experiment searching for physics beyond the Standard Model</Description>
		<PIName>Corrado Gatto</PIName>
		<Organization>Fermilab</Organization>
		<Department>Particle Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>10</ID>
		<Name>RIT</Name>
		<Description>Ramsey theory studies the properties that combinatorial structures need in order to guarantee that desired substructures are contained within them. It is often seen as the study of the order that comes from randomness, and has applications in mathematics, computer science, finance, economics, and other areas. Our research involves a computational approach to establishing the values of various Ramsey numbers, whose role is to quantify the general existential theorems in Ramsey theory.</Description>
		<PIName>Stanisław P. Radziszowski</PIName>
		<Organization>Rochester Institute of Technology</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/khe0lt7x352p</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>735</ID>
		<Name>RIT_KGCEval</Name>
		<Description>TBD</Description>
		<PIName>Carlos R. Rivero Osuna</PIName>
		<Organization>Rochester Institute of Technology</Organization>
		<Department>Computing and Information Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/khe0lt7x352p</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>740</ID>
		<Name>RIT_ResearchComputing</Name>
		<Description>Research Computing staff at the Rochester Institute of Technology (RIT).</Description>
		<PIName>Kirk Anne</PIName>
		<Organization>Rochester Institute of Technology</Organization>
		<Department>RIT Research Computing</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/khe0lt7x352p</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>322523477</ID>
		<Name>RIT_Tu</Name>
		<Description>Study on Solid State Battery Cathode Optimization</Description>
		<PIName>Howard Tu</PIName>
		<Organization>Rochester Institute of Technology</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Mechanical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/khe0lt7x352p</InstitutionID>
		<FieldOfScienceID>14.1901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>604</ID>
		<Name>RPI_Brown</Name>
		<Description>Event reconstruction in nanoscale layers for detection of neutrino decay</Description>
		<PIName>Ethan Brown</PIName>
		<Organization>Rensselaer Polytechnic Institute</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Elementary Particle Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/z9jynyyvt051</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>164668602</ID>
		<Name>RachelTestSubmit6Access</Name>
		<Description>Test project for the PATh team.</Description>
		<PIName>Miron Livny</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>466</ID>
		<Name>Radlife</Name>
		<Description>study of the real-time monitoring of space and earth weather, cosmic ray radiation and cancer formation, cosmic ray muon tomography, etc...</Description>
		<PIName>Xiaochun He</PIName>
		<Organization>Georgia State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ybl3snr9pbs1</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>465</ID>
		<Name>ReABuncherRing</Name>
		<Description>Design of a pre-RFQ buncher ring for ReA at FRIB</Description>
		<PIName>Phil Duxbury</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>163</ID>
		<Name>RicePhenomics</Name>
		<Description>Analysis of salinity tolerance in rice.</Description>
		<PIName>Harkamal Walia</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Agronomy</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>716</ID>
		<Name>Rice_AjoFranklin</Name>
		<Description>Grid Analysis of Distributed Acoustic Sensing Datasets</Description>
		<PIName>Jonathan Ajo-Franklin</PIName>
		<Organization>Rice University</Organization>
		<Department>Earth, Environmental, and Planetary Sciences</Department>
		<FieldOfScience>Earth and Ocean Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>40</FieldOfScienceID>
	</Project>
	<Project>
		<ID>147392095</ID>
		<Name>Rice_Foster</Name>
		<Description>Working on the interlay of correlated order and spatially rarified wave functions indued by spatial inhomogeneities in condensed matter systems. We have shown that the superconductivity can be enhanced in quasiperiodic twisted bilayer graphene with a preprint (https://doi.org/10.48550/arXiv.2406.06676). Currently we are focused on quasiperiodic twisted trilayers, where the physics is much richer and our results have a closer relation with experiments.</Description>
		<PIName>Matthew Foster</PIName>
		<Organization>Rice University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>846</ID>
		<Name>Rice_Fox</Name>
		<Description>Consumer behavior prediction analysis</Description>
		<PIName>Jeremy Fox</PIName>
		<Organization>Rice University</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>19.0402</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1484988684</ID>
		<Name>Rice_Li</Name>
		<Description>We do research on experimental nuclear and particle physics at the LHC. Our main purpose of using OSG is to perform phenomenological model simulations to compare with and understand the experimental data. https://lilab.rice.edu/</Description>
		<PIName>Wei Li</PIName>
		<Organization>Rice University</Organization>
		<Department>Physics and Astronomy Department</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1107004131</ID>
		<Name>Rice_Mu</Name>
		<Description>Despite rapid advances in synthetic organic chemistry, many classes of small molecules remain inefficient to access using conventional methods. Enzymatic reactions, on the other hand, offer unparalleled potential for highly selective chemical transformations. By combining the power of modern enzyme engineering tools and advances in genome mining, The Renata laboratory aims to develop practical enzymatic solutions for traditionally challenging organic reactions, especially in the realm of C–H functionalization chemistry. The utility of these transformations will be showcased in the concise, scalable synthesis of bioactive natural products and their analogues, which in turn will serve as potential leads in drug discovery efforts or novel chemical probes to interrogate various cellular processes. Research projects are designed to be multi-faceted, providing students with broad exposure to synthetic organic chemistry, molecular biology, enzyme engineering and medicinal chemistry to ensure that they are well-equipped for future careers in both academia and industry. （https://renatalab.com/research/）</Description>
		<PIName>Xinpeng Mu</PIName>
		<Organization>Rice University</Organization>
		<Department>Department of Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>40.0504</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1294804377</ID>
		<Name>Rice_Mulligan</Name>
		<Description>This project attempts to find novel geometric symmetries in the folding of polygons. It has already produced several interesting solutions, and I have now refactored it to be generalizable and linearly scalable in an HTC workflow. A small version of it serves as an example for HTC parallelization in our workshops. https://github.com/JohnMulligan/parallel_folding_example/</Description>
		<PIName>John Connor Mulligan</PIName>
		<Organization>Rice University</Organization>
		<Department>Center for Research Computing</Department>
		<FieldOfScience>Mathematics and Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>24.0199</FieldOfScienceID>
	</Project>
	<Project>
		<ID>805</ID>
		<Name>Rice_Ogilvie</Name>
		<Description>The ultimate goal is to train machine-learning-type models (e.g. GANs or CNNs) on DNA and RNA reads in order to classify both kinds of data into a common set of clusters. The application of this research is to improve our understanding of cancer development and progression by integrating single-cell genomic and transcriptomic data from the same patient. We plan on training these models on publicly available datasets that include both transcriptomic and genomic short reads, after first reducing those datasets to per-gene read counts.</Description>
		<PIName>Huw Ogilvie</PIName>
		<Organization>Rice University</Organization>
		<Department>Department of Computer Science</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1240428427</ID>
		<Name>Rochester_Askari</Name>
		<Description>Engineering the electro-mechanical properties of Twisted Bilayer Graphene with strained capping layers</Description>
		<PIName>Hesam Askari</PIName>
		<Organization>University of Rochester</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Mechanical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>14.1901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1448327643</ID>
		<Name>Rochester_Franchini</Name>
		<Description>The primary objective of this research project is to evaluate the efficacy and feasibility of an AI-powered  pre-diagnostic tool for gastrointestinal diseases. Specifically, the project aims to assess the accuracy of  the AI-powered technology in analyzing abdominal sounds and visual data recorded by the user's mobile phone.
</Description>
		<PIName>Anthony Franchini</PIName>
		<Organization>University of Rochester</Organization>
		<Department>University of Rochester Medical Centre</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>372255360</ID>
		<Name>Rochester_Liu</Name>
		<Description>I will be using the allocation to help researchers at the University of Rochester to understand how to use XSEDE resources and to test which XSEDE resources best fit their needs.</Description>
		<PIName>Baowei Liu</PIName>
		<Organization>University of Rochester</Organization>
		<Department>Dept. of Physics &amp; Astronomy</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1673675712</ID>
		<Name>Rochester_Mongelli</Name>
		<Description>This will allow for the determination of relative solubility of polymeric materials in alcohol solvents, similar to the shampoo and shaving cream materials. An understanding of the free energy of solvation and surface activity of polyethers and polysilicones will allow for the optimization of alcohol content in such mixtures to get the best bang for the buck in solubilizing and surface tension optimized alcohol-water mixtures with these polymers present.</Description>
		<PIName>Guy Mongelli</PIName>
		<Organization>University of Rochester</Organization>
		<Department>Chemical Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>14.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>688</ID>
		<Name>Rowan_Nguyen</Name>
		<Description>Machine Learning and Error-Correcting Output Codes (ECOC)</Description>
		<PIName>Hieu Nguyen</PIName>
		<Organization>Rowan University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oya34s2ysser</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>697</ID>
		<Name>Rowan_NguyenT</Name>
		<Description>PDE/ODE-based machine learning</Description>
		<PIName>Thanh Nguyen</PIName>
		<Organization>Rowan University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oya34s2ysser</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>790</ID>
		<Name>Rowan_Rasool</Name>
		<Description>Machine learning algorithm robustness study</Description>
		<PIName>Ghulam Rasool</PIName>
		<Organization>Rowan University</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oya34s2ysser</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>285974151</ID>
		<Name>RutgersOARC</Name>
		<Description>Rutgers Office of Advanced Research Computing</Description>
		<PIName>Bala Desinghu</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>OARC</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>74</ID>
		<Name>SBGrid</Name>
		<Description>SBGrid work using OSG Connect</Description>
		<PIName>Piotr Sliz</PIName>
		<Organization>Harvard Medical School</Organization>
		<Department>Biological Chemistry and Molecular Pharmacology</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>26.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>502</ID>
		<Name>SBND</Name>
		<Description>Project entry corresponding to the SBND VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>123</ID>
				<Name>SBND</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>343784385</ID>
		<Name>SBU_Jia</Name>
		<Description>https://www.stonybrook.edu/commcms/chemistry/faculty/_faculty-profiles/jia-jiangyong Simulation of relativistic heavy ion collisions of atomic nuclei, such as Gold, Lead, Xeon, Oxygen, proton etc using relativistic hydrodynamic code and transport simulation codes.</Description>
		<PIName>Jiangyong Jia</PIName>
		<Organization>State University of New York at Stony Brook</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qqd2s2b6m7eh</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>618</ID>
		<Name>SCEPCAL_Tully</Name>
		<Description>Segmented Crystal Electromagnetic Precision Calorimeter (for CEPC: Circular Electron Positron Collider and possibly other future collider experiments, e.g. the FCC)</Description>
		<PIName>Christopher Tully</PIName>
		<Organization>Princeton University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ao845i5pul3m</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>779</ID>
		<Name>SC_Gothe</Name>
		<Description>Measuring cross section for double charged pion electroproduction off the proton with CLAS at JLab. Needing to simulate events passing through the detector based off previous measurements in order to more accurately determine the acceptance of the detector and thus correct measured raw yields.</Description>
		<PIName>Ralf Gothe</PIName>
		<Organization>University of South Carolina</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p58u55ae2ahu</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>583</ID>
		<Name>SDCC</Name>
		<Description>Project entry for the BNL Scientific Data &amp; Computing Center</Description>
		<PIName>John Steven De Stefano Jr.</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>114</ID>
				<Name>BNL</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>159</ID>
		<Name>SDEalgorithms</Name>
		<Description>The goal of the project is to develop fast, accurate algorithms for simulation and inference of stochastic differential equations (SDE).  Many SDE models of interest in science feature drift and diffusion coefficients with superlinear growth, which causes convergence and stability problems for many time integrators.  We seek improved methods that can overcome these problems, with a focus on correctly computing moments and densities of the solution.</Description>
		<PIName>Harish S. Bhat</PIName>
		<Organization>University of California, Merced</Organization>
		<Department>Applied Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x5v4n3xgq7lu</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>622882552</ID>
		<Name>SDSC-Staff</Name>
		<Description>San Diego Supercomputing Center staff, for system exploration and integration</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>600</ID>
		<Name>SDSU_Edwards</Name>
		<Description>Bioinformatics</Description>
		<PIName>Rob Edwards</PIName>
		<Organization>San Diego State University</Organization>
		<Department>Viral Information Institute</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lly8f2d4uk76</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>813</ID>
		<Name>SDSU_Huangfu</Name>
		<Description>Artificial intelligence and information sciences studies.</Description>
		<PIName>Luwen (Vivian) Huangfu</PIName>
		<Organization>San Diego State University</Organization>
		<Department>Department of Management Information Systems</Department>
		<FieldOfScience>Computer and information services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lly8f2d4uk76</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1771702212</ID>
		<Name>SDState_RCi</Name>
		<Description>This project will be used to train RCi staff in delivering OSG to researcher at SDSU.</Description>
		<PIName>Chad Julius</PIName>
		<Organization>South Dakota State University</Organization>
		<Department>Research Cyberinfrastructure</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oqz71b6b44za</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>368</ID>
		<Name>SFCphases</Name>
		<Description>Molecular-scale interaction between mobile and stationary
phases as they relate to supercritical fluid chromatography
(SFC) is modeled with hybrid Monte Carlo methods. Carbon dioxide is the main component of the mobile phase in SFC, which typically operates above the critical point. Simulations use seven mole percent methanol in the mobile phase. The objective of the proposed work is understanding the interaction between mobile-phase molecules and the alkylsilane-coated silica stationary phase. The computational method is Monte Carlo simulation. Hybrid molecular dynamics moves explore conformations of eighteen-carbon alkylsilane chains bonded to silica substrate.</Description>
		<PIName>Paul Siders</PIName>
		<Organization>University of Minnesota Duluth</Organization>
		<Department>Chemistry and Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4h44weyae1r3</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1662975253</ID>
		<Name>SHU_IPHS3350_25Fall</Name>
		<Description>This course introduces statistical research methods in health science. This course provides students with the tools to collect and analyze data. Students will analyze peer-reviewed literature to improve critical thinking skills. Emphasis will be placed on concepts of data collection, data entry, data analysis and interpretation utilizing SPSS and Excel software programs.</Description>
		<PIName>Samah Alshrief</PIName>
		<Organization>Seton Hall University</Organization>
		<Department>Research Data Services</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/tgf4v3ud3uyy</InstitutionID>
		<FieldOfScienceID>51.0000b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>563</ID>
		<Name>SINGE</Name>
		<Description>SINGE uses Granger Causality tests to infer gene regulatory networks from pseudotemporally ordered single-cell transcriptomic data.</Description>
		<PIName>Anthony Gitter</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics and Medical Informatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>421317448</ID>
		<Name>SIUE_Quinones</Name>
		<Description>Research in Computer Vision, Digital Image Processing, and Multi-Agent Simulation.</Description>
		<PIName>Rubi Quinones</PIName>
		<Organization>Southern Illinois University Edwardsville</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/s19zlu9q6u7l</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>668</ID>
		<Name>SIUE_Staff</Name>
		<Description>Staff at Southern Illinois University who centrally support research computing</Description>
		<PIName>David Chace</PIName>
		<Organization>Southern Illinois University Edwardsville</Organization>
		<Department>Network and Systems Infrastructure</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/s19zlu9q6u7l</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1786599971</ID>
		<Name>SJSU_IT</Name>
		<Description>Our goals are to explore and learn about the OSG computing environment so we can help and share the knowledge with SJSU researchers to enable them to utilize OSG HPC for their research projects.</Description>
		<PIName>Atul Pala</PIName>
		<Organization>San Jose State University</Organization>
		<Department>IT/HPC</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0r71ijbk5mbz</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2028035864</ID>
		<Name>SJSU_Zhang</Name>
		<Description>First-principles calculations of transition metal oxides for the application of low-power electronics</Description>
		<PIName>Shenli Zhang</PIName>
		<Organization>San Jose State University</Organization>
		<Department>Department of Chemical and Materials Engineering</Department>
		<FieldOfScience>Materials Research</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0r71ijbk5mbz</InstitutionID>
		<FieldOfScienceID>14.1801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>542618163</ID>
		<Name>SLAC_Nelson</Name>
		<Description>The Light Dark Matter eXperiment (LDMX) is a search for sub-GeV (lighter than the proton) thermal dark matter particles</Description>
		<PIName>Timothy Nelson</PIName>
		<Organization>SLAC National Accelerator Laboratory</Organization>
		<Department>Fundamental Physics Directorate, HPS Department</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gsbt8law2xf0</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1212557957</ID>
		<Name>SLU_Ahn</Name>
		<Description>Studying multimodal ML applications in biomedical science.</Description>
		<PIName>Tae-Hyuk Ahn</PIName>
		<Organization>Saint Louis University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p5mk8p3jv6wa</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>514</ID>
		<Name>SMOTNT</Name>
		<Description>Current model tracks the status of every single mRNA, ribosome, tRNA molecules during transcription and translation processes. The activities of these molecules are mainly governed by experimentally determined parameters such as their abundances and diffusion rates, as well as gene-specific rates for transcription, mRNA decay and translation.</Description>
		<PIName>Tongji Xing</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Genetics Department</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>513</ID>
		<Name>SMRCNTP</Name>
		<Description>We are exploring the free energy landscape of stacking and columnar liquid assembly in condensed phases of monomer nucleic acids such as ATP and TTP using enhanced sampling methods. We are validating our methods by direct comparison with recent experimental studies of these materials. This work is of relevance to the prebiotic appearance of information carrying polymers such as DNA and RNA.</Description>
		<PIName>Joseph Yelk</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>3</ID>
		<Name>SNOplus</Name>
		<Description>SNO+ is a multi-purpose liquid scintillator detector with a primary goal of studying neutrino-less double beta decay in Tellurium-130, and is also capable of measurements involving solar neutrinos, reactor antineutrinos and geoneutrinos, supernovae, certain nucleon decay modes. Data collected by the detector are moved to (UK and Canadian) grid storage, where automated processing occurs. The large number of simulated data sets required for statistical analyses are also produced on grid resources. The total combined size of the data and simulations is expected to be on the order of 100 TB, which makes transfer, storage, and processing (i.e. running custom ROOT code) intractable on local resources available at collaborating US institutions. Hence, access to grid storage and processing is imperative for the analysis of the SNO+ data by US Collaborators.</Description>
		<PIName>Joshua R Klein</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>359</ID>
		<Name>SO10GU</Name>
		<Description>searching for different realistic SO(10) GUT models that are able to reproduce the experimentally observed fermion masses and mixings</Description>
		<PIName>shaikh saad</PIName>
		<Organization>Oklahoma State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ogvkim1urhzk</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>397</ID>
		<Name>SOL</Name>
		<Description>The goal of this project is to implement Sol (a set of programs to compute solar insolation on complex landscapes and the energy available to drive weathering).</Description>
		<PIName>Tyson Swetnam</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Geosciences</Department>
		<FieldOfScience>Geographic Information Science</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>45.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>649</ID>
		<Name>SOLID</Name>
		<Description>Jefferson Lab's SOLID experiment</Description>
		<PIName>Thomas Britton</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>99</ID>
				<Name>JLab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1702226924</ID>
		<Name>SPRI_Smith</Name>
		<Description>use high throughput computing to perform thousands of variations in virtual surgical decisions to assess optimal plans for patients</Description>
		<PIName>Colin Smith</PIName>
		<Organization>Steadman Philippon Research Institute</Organization>
		<Department>Department of Biomedical Engineering</Department>
		<FieldOfScience>Bioengineering &amp; Biomedical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2jg5lguuacnw</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>417</ID>
		<Name>SSGAforCSP</Name>
		<Description>This project will use the OSG to demonstrate the feasibility of using a new steady state genetic algorithm (SSGA), recently introduced by the MGAC collaboration, to predict the crystal structures of molecules of pharmaceutical interest. The OSG resources are ideal for this project because the SSGA requires a large number of independent energy calculations of candidate structures. These calculations for simple molecules will use the DFT approach, using software already available in the OSG.</Description>
		<PIName>Julio Facelli</PIName>
		<Organization>University of Utah</Organization>
		<Department>Biomedical Informatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iwlonrroeaal</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1637586962</ID>
		<Name>STAT605</Name>
		<Description>Project for UW - Madison course in computational skills for statistics students.</Description>
		<PIName>John Gillett</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>27.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1286425467</ID>
		<Name>SUNYGeneseo_CIT</Name>
		<Description>Campus support for users at SUNY Geneseo</Description>
		<PIName>David Warden</PIName>
		<Organization>State University of New York College at Geneseo</Organization>
		<Department>Computing &amp; Information Technology</Department>
		<FieldOfScience>Computer &amp; Information Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/c50lqqtwgcys</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1858194220</ID>
		<Name>SUNYUpstateMed_Knutson</Name>
		<Description>We are interested in analyzing an RNA sequencing dataset from B-cells to study and understand class-switch recombination. We have downloaded FASTQ files from SRA and would like to proceed with alignment to the human genome.</Description>
		<PIName>Bruce Knutson</PIName>
		<Organization>SUNY Upstate Medical University</Organization>
		<Department>Biochemistry and Molecular Biology</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e323lei9gdjp</InstitutionID>
		<FieldOfScienceID>26.0210</FieldOfScienceID>
	</Project>
	<Project>
		<ID>821428041</ID>
		<Name>SUNYUpstateMed_Schmitt</Name>
		<Description>Studying the structure and phylogenetics of the ribonucleprotein complexes RNase MRP and P to apply to human and baker's yeast; Mining high-throughput and public datasets for information on the baker's yeast ribonucleoprotein complex RNase MRP' https://www.upstate.edu/biochem/research/fac_research.php?empID=schmittm</Description>
		<PIName>Mark Schmitt</PIName>
		<Organization>SUNY Upstate Medical University</Organization>
		<Department>Department of Biochemistry &amp; Molecular Biology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e323lei9gdjp</InstitutionID>
		<FieldOfScienceID>26.021</FieldOfScienceID>
	</Project>
	<Project>
		<ID>138</ID>
		<Name>SWC-OSG-IU15</Name>
		<Description>Joint Software Carpentry/OSG Workshop at IUPUI, March 3rd-6th 2015.</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>IUPUI</Organization>
		<Department>OSG</Department>
		<FieldOfScience>Community Grid</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oe09ae0p2pmj</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>129</ID>
		<Name>SWC-OSG-UC14</Name>
		<Description>Software Carpentry/OSG Workshop at University of Chicago. Date Dec 15-17 2014.</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>302</ID>
		<Name>SWITCHHawaii</Name>
		<Description>We are using the SWITCH power system planning model to design power systems for Hawaii that have minimal expected cost across a wide range of future fossil fuel prices.</Description>
		<PIName>Matthias Fripp</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Electrical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>711</ID>
		<Name>SWOSU_SOCCER</Name>
		<Description>Helping SWOSU students and faculty start running jobs on HTC resources in support of training and growing an HTC capable resource.</Description>
		<PIName>Jeremy Evert</PIName>
		<Organization>Southwest Oklahoma State University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xpoj97mgs7iu</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1824766561</ID>
		<Name>SalemState_Poitevin</Name>
		<Description>Find segments of nucleotides in different genomes that can be parsed both visually and phonetically.</Description>
		<PIName>Pedro Poitevin</PIName>
		<Organization>Salem State University</Organization>
		<Department>Department of Mathematics</Department>
		<FieldOfScience>Visual Arts</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zsklkeksa9qy</InstitutionID>
		<FieldOfScienceID>50</FieldOfScienceID>
	</Project>
	<Project>
		<ID>630</ID>
		<Name>Sandia_LandModel</Name>
		<Description>Developing a "cheaper" surrogate land model.</Description>
		<PIName>Vishagan Ratnaswamy</PIName>
		<Organization>Sandia National Laboratories</Organization>
		<Department>Earth Science</Department>
		<FieldOfScience>Earth and Ocean Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wznjjkdsruco</InstitutionID>
		<FieldOfScienceID>40</FieldOfScienceID>
	</Project>
	<Project>
		<ID>115</ID>
		<Name>SbGenome</Name>
		<Description>The Sarcophaga bullata Genome Project seeks to assemble and annotate the genome of Sarcophaga bullata, an important model for cold tolerance and diapause.</Description>
		<PIName>Dave Denlinger</PIName>
		<Organization>Ohio State University</Organization>
		<Department>Department of Evolution, Ecology, and Organismal Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>189</ID>
		<Name>SciSim</Name>
		<Description>The aim of this project is to create examples, demos and training materials to get UCF Faculty and Researchers get started for using OSG for HTC applications in the field of Scientific Simulations, Computation and Visualizations. Primarily, we expect to use NAMD, VMD, Matlab and R application software.</Description>
		<PIName>Amit Goel</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Advanced Research Computing Center</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>489</ID>
		<Name>SeaQuest</Name>
		<Description>Project entry corresponding to the SeaQuest VO. This is purely for job accounting purposes.</Description>
		<PIName>David Christian</PIName>
		<Organization>SeaQuest</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1964875815</ID>
		<Name>SeattleU_CPSC_5520_2025Sprin</Name>
		<Description>Teaching a distributed systems course. Assignments will be at-scale applications including  a parallel video rendering pipeline, a genome analysis application, and a text analysis workflow
</Description>
		<PIName>Nate Kremer-Herman</PIName>
		<Organization>Seattle University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nn54csg34gty</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>965071200</ID>
		<Name>Seattle_Herman</Name>
		<Description>Teaching a distributed systems course. Assignments will be at-scale applications  including a parallel video rendering pipeline, a genome analysis application, and a text analysis workflow.
</Description>
		<PIName>Nate Kremer-Herman</PIName>
		<Organization>Seattle University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nn54csg34gty</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>355423046</ID>
		<Name>Seattle_Mendible</Name>
		<Description>Data science for social good</Description>
		<PIName>Ariana Mendible</PIName>
		<Organization>Seattle University</Organization>
		<Department>Department of Mathematics</Department>
		<FieldOfScience>Statistics (SOCIAL SCIENCES)</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nn54csg34gty</InstitutionID>
		<FieldOfScienceID>27.0599b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>60947600</ID>
		<Name>SetonHall_Bundy</Name>
		<Description>Dr. Bundy's research focuses on evolution experiments with artificial life.</Description>
		<PIName>Jason Bundy</PIName>
		<Organization>Seton Hall University</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Evolutionary Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/tgf4v3ud3uyy</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>504635856</ID>
		<Name>SetonHall_RDS</Name>
		<Description>Group for the Research Data Services team in the Seton Hall Libraries.

https://library.shu.edu/Data-Services/home</Description>
		<PIName>Sharon Ince</PIName>
		<Organization>Seton Hall University</Organization>
		<Department>University Libraries</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/tgf4v3ud3uyy</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>472</ID>
		<Name>Shortrunjobs</Name>
		<Description>I'm working with researchers at FSU to show them how to use docker, singularity and OSG and I'd like to be able to submit an example job during some tutorials. I'll keep the runtime to just a few seconds so as to not use up resources.</Description>
		<PIName>Donny Shrum</PIName>
		<Organization>Florida State University</Organization>
		<Department>Research Computing Center</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>543</ID>
		<Name>SimCenter</Name>
		<Description>Research Computing Facility providing HPC/HTC resources for local users</Description>
		<PIName>Anthony Skjellum</PIName>
		<Organization>University of Tennessee at Chattanooga</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4e79d27c93p7</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>439</ID>
		<Name>SimPrily</Name>
		<Description>This project is for anyone using SimPrily to perform demographic simulations.</Description>
		<PIName>Ariella Gladstein</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Ecology and Evolutionary Biology</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1759568953</ID>
		<Name>SmallMolecule_Hoffman</Name>
		<Description>https://cancer.wisc.edu/research/resources/ddc/smsf/</Description>
		<PIName>Spencer Ericksen</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Small Molecule Screening Facility</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51.2006</FieldOfScienceID>
	</Project>
	<Project>
		<ID>7</ID>
		<Name>Snowmass</Name>
		<Description>Simulate hundreds of millions of high-energy
proton proton collisions, which mimic the
collisions expected at future hadron colliders.
This simulated data is used to assess the physics
potential of future colliders, allowing US
decision makers and funding agencies to prioritize
future physics projects.</Description>
		<PIName>Meenakshi Narain</PIName>
		<Organization>Brown University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0ytxfy0n4hol</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>298</ID>
		<Name>SourceCoding</Name>
		<Description>Lossy compression is one of the classic problems in communication systems. The goal is to compress a given digital sequence so that it can be reconstructed up to a specific distortion (Shannon bound).</Description>
		<PIName>David Mitchell</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Electrical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>14.1099b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>77</ID>
		<Name>SoyKB</Name>
		<Description>The Soybean Knowledge Base (SoyKB), a comprehensive all-inclusive web resource for soybean. SoyKB is designed to handle the storage and integration of the gene, genomics, EST, microarray, transcriptomics, proteomics, metabolomics, pathway and phenotype data.</Description>
		<PIName>Dong Xu</PIName>
		<Organization>University of Missouri</Organization>
		<Department>Christopher S. Bond Life Sciences Center</Department>
		<FieldOfScience>Plant Biology</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dohu2f6ba08u</InstitutionID>
		<FieldOfScienceID>26.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2114917477</ID>
		<Name>SparseNeuro</Name>
		<Description>Using machine learning techniques that discover solutions with anatomically and temporally structured sparsity, we aim to test representational predictions from cognitive psychology using whole-brain neuroimaging datasets. </Description>
		<PIName>Christopher Cox</PIName>
		<Organization>Louisiana State University</Organization>
		<Department>Department of Psychology</Department>
		<FieldOfScience>Behavioral Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lk45ajqlj7f1</InstitutionID>
		<FieldOfScienceID>30.1701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>419</ID>
		<Name>SpatialModeling</Name>
		<Description>Developing software applications for probabilistic graph models, predominantly for spatially explicit modeling.</Description>
		<PIName>Brook Milligan</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>424</ID>
		<Name>Specppxf</Name>
		<Description>Robust statistical inference of the kinematics from astrophysical spectra using Monte Carlo methods</Description>
		<PIName>Alabi Adebusola</PIName>
		<Organization>University of California, Santa Cruz</Organization>
		<Department>Department of Astronomy and Astrophysics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n6cai04882ca</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1176451466</ID>
		<Name>Spelman_Tekle</Name>
		<Description>My lab implements the basic principles of evolution to study the diversity, origin and relationships of medical and nonmedical microbes.</Description>
		<PIName>Yonas Tekle</PIName>
		<Organization>Spelman College</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/tls5zf8zntze</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>440</ID>
		<Name>StSNE</Name>
		<Description>Find low dimensional representation of the high dimensional data</Description>
		<PIName>Yichen Cheng</PIName>
		<Organization>Georgia State University</Organization>
		<Department>Institute for Insight</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ybl3snr9pbs1</InstitutionID>
		<FieldOfScienceID>27.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>75</ID>
		<Name>StanfordRCC</Name>
		<Description>This project is for simulation work in the Stanford research community.</Description>
		<PIName>Ruth Marinshaw</PIName>
		<Organization>Stanford University</Organization>
		<Department>RCC</Department>
		<FieldOfScience>Community Grid</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>756</ID>
		<Name>Stanford_Das</Name>
		<Description>RNA tertiary structure of COVID-19 UTRs as therapeutic and vaccine targets: https://daslab.stanford.edu/news</Description>
		<PIName>Rhiju Das</PIName>
		<Organization>Stanford University</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>845</ID>
		<Name>Stanford_Fletcher</Name>
		<Description>Optimizing water resource planning decisions through simulating effects of climate change projections on models of city water supply portfolios.</Description>
		<PIName>Sarah Fletcher</PIName>
		<Organization>Stanford University</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1205313563</ID>
		<Name>Stanford_Gilula</Name>
		<Description>Gather statistics about the evolution and final conditions of various random initial configurations under certain symmetries in two-dimensional cellular automaton, mainly Conway's Game of Life</Description>
		<PIName>Maxim Gilula</PIName>
		<Organization>Stanford University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>27.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>915821641</ID>
		<Name>Stanford_Iaccarino</Name>
		<Description>Using numerical search to find new algorithms for solving differential equations. https://link.springer.com/article/10.1007/s11075-024-01783-2</Description>
		<PIName>Gianluca Iaccarino</PIName>
		<Organization>Stanford University</Organization>
		<Department>ICME</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>708</ID>
		<Name>Stanford_Zia</Name>
		<Description>Dynamic simulation of colloidal glass transition</Description>
		<PIName>Roseanna Zia</PIName>
		<Organization>Stanford University</Organization>
		<Department>Chemical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1995239322</ID>
		<Name>Swarthmore_Collins</Name>
		<Description>We use imaging of planarian behavioral responses to evaluate effects on neuronal function and neurodevelopment/regeneration. Our projects span from understanding the neuroethology of different behaviors to using planarians as a screening platform for different chemicals, to understand both neuroefficacy and toxicology.</Description>
		<PIName>Eva-Maria Collins</PIName>
		<Organization>Swarthmore College</Organization>
		<Department>Department of Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/a9u068qpwh85</InstitutionID>
		<FieldOfScienceID>26.1504</FieldOfScienceID>
	</Project>
	<Project>
		<ID>26</ID>
		<Name>Swift</Name>
		<Description>Software development and systems testing for the parallel scripting language.</Description>
		<PIName>Kyle Chard</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>773</ID>
		<Name>Syracuse_Brown</Name>
		<Description>Gravitational-wave astronomy and astrophysics.</Description>
		<PIName>Duncan Brown</PIName>
		<Organization>Syracuse University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mzpz26kp0f3p</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2127461506</ID>
		<Name>Syracuse_Carter</Name>
		<Description>This project is focused on automated re-processing of hydrographic survey data catalogued in the USACE eHydro database. Currently, the USACE employs deterministic TINs for creating bathymetric surfaces to inform dredging practices which is prone to producing artifacts. With improved geostatistical methods (kriging, radial basis functions, tension splines, etc.), the USACE can potentially improve dredge operation planning by having a more accurate model of bathymetry across the nation’s largest coastal waterways. eHydro as a reference: https://www.arcgis.com/apps/dashboards/4b8f2ba307684cf597617bf1b6d2f85d</Description>
		<PIName>Elizabeth Carter</PIName>
		<Organization>Syracuse University</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mzpz26kp0f3p</InstitutionID>
		<FieldOfScienceID>14.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1629550967</ID>
		<Name>Syracuse_ITSRC</Name>
		<Description>Research Computing staff from Syracuse University's Information Technology Services (ITS)</Description>
		<PIName>Eric Sedore</PIName>
		<Organization>Syracuse University</Organization>
		<Department>ITS Research Computing</Department>
		<FieldOfScience>Integrative Activities</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mzpz26kp0f3p</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>248237660</ID>
		<Name>Syracuse_Nitz</Name>
		<Description>Looking for sub-solar mass neutron stars.</Description>
		<PIName>Alex Nitz</PIName>
		<Organization>Syracuse University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mzpz26kp0f3p</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>362</ID>
		<Name>SysBioEdu</Name>
		<Description>A project for teaching analysis of large data sets for construction of models (i.e. graphs) of biological systems.</Description>
		<PIName>Stephen Ficklin</PIName>
		<Organization>Washington State University</Organization>
		<Department>Horticulture</Department>
		<FieldOfScience>Biological and Critical Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e0k6xtxoggq8</InstitutionID>
		<FieldOfScienceID>26.1308</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1989474490</ID>
		<Name>TAMUCT_Thron</Name>
		<Description>Large-scale agent-based simulations; stochastic optimization; training of neural networks</Description>
		<PIName>Christopher Thron</PIName>
		<Organization>Texas A&amp;M University-Central Texas</Organization>
		<Department>Department of Science and Mathematics</Department>
		<FieldOfScience>Mathematics and Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o5wwhz0gsemj</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>354415453</ID>
		<Name>TAMUSA_Alsmadi</Name>
		<Description>Accelerating Research Computing at Texas A&amp;M University-San Antonio (ARCATS) elevates research computing capacity by enhancing the capacity for campus cyberinfrastructure-enabled research.</Description>
		<PIName>Izzat Alsmadi</PIName>
		<Organization>Texas A&amp;M San Antonio</Organization>
		<Department>Research Computing</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m8y1vj9cez1o</InstitutionID>
		<FieldOfScienceID>11.1099</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2028978826</ID>
		<Name>TAMU_Mandal</Name>
		<Description>We study quantum dynamics in light-matter interacting systems. We develop novel numerical techniques to study single-body and many-body when the interaction with light can alter matter's microscopic and macroscopic properties of materials.</Description>
		<PIName>Arkajit Mandal</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>791914894</ID>
		<Name>TAMU_Rathinam</Name>
		<Description>Develop novel algorithms for path planning of multi-agent systems.</Description>
		<PIName>Sivakumar Rathinam</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Department of Mechanical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>120</ID>
		<Name>TAMUpheno</Name>
		<Description>The Large Hadron Collider (LHC) experiments have successfully discovered the last missing piece of the standard model (SM)—the elusive Higgs boson. However, no sign of any physics beyond the SM has been observed yet. Although the standard model has been extremely effective, many unsolved questions still remain.
The focus of our group is to study models of physics beyond the SM, which tries solve the aforementioned unsolved questions, and explore their possible signatures, at LHC experiments predominately. These models include Supersymmetric models, Grand Unified Theories, Left-Right Symmetric models and various Dark Matter models.
LHC is going through an upgrade now and it will start functioning again next year with increased energy. We are pursuing a number of projects trying to predict the possible signature of new physics, pertaining to various models described above, in upcoming LHC experiments. Owing to these we need sufficient comuting power and intend to run collider simulators including MadGraph, Pythia, PGS, Delphes etc.</Description>
		<PIName>Bhaskar Dutta</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Department of Physics &amp; Astronomy</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>393</ID>
		<Name>TCGAPartCorr</Name>
		<Description>This is a project to characterize partial correlation relationships within and between data types in the data available from The Cancer Genome Atlas (TCGA).</Description>
		<PIName>Chad Shaw</PIName>
		<Organization>Baylor College of Medicine</Organization>
		<Department>Molecular and Human Genetics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gk0vqx4uormq</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2050048511</ID>
		<Name>TCNJ_Science</Name>
		<Description>Group for School of Science computing support/facilitators at The College of New Jersey</Description>
		<PIName>Sunita Kramer</PIName>
		<Organization>The College of New Jersey</Organization>
		<Department>School of Science</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q901ybs1a9nf</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>820768679</ID>
		<Name>TC_Suk</Name>
		<Description>My research project aims to develop recommendation models for math course-taking plans in high school, where single-decision models target 9-th graders only and multiple decision models target 9-12 graders.</Description>
		<PIName>Youmi Suk</PIName>
		<Organization>Teachers College Columbia University</Organization>
		<Department>Department of Human Development</Department>
		<FieldOfScience>Education</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pahqw9jn55jh</InstitutionID>
		<FieldOfScienceID>13.0603</FieldOfScienceID>
	</Project>
	<Project>
		<ID>508281087</ID>
		<Name>TDAI_Staff</Name>
		<Description>This project is for an XSEDE/Access Champions allocation, so there is no project that is planned for OSG presently. TDAI serves over 200 faculty affiliates that have interest in various aspects of Data Science, with researchers spanning disciplines from foundational methods, to applications in a variety of sciences, to data governance and policy. The intention of obtaining an OSG project is similar to other Champions accounts: to have resources readily available for researchers to test-drive against their workflow prior to obtaining their own allocations. https://tdai.osu.edu/research-action</Description>
		<PIName>Tanya Berger-Wolf</PIName>
		<Organization>The Ohio State University</Organization>
		<Department>Translational Data Analytics Institute</Department>
		<FieldOfScience>Data Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>338</ID>
		<Name>TDAstats</Name>
		<Description>Topological data analyses on various datasets</Description>
		<PIName>David Meyer</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>49</ID>
		<Name>TG-ASC130043</Name>
		<Description>The proposed project aims to decrease the management overhead and code complexity of trajectory analysis from particle simulation data. Particle simulations produce trajectories, which are encoded by a stream of high-dimensional vectors (frames).  Analysis on this data usually takes a map-reduce form consisting of mapping each frame to successively smaller vectors of descriptors.From this starting point, two typical data analysis cases will be considered.  The first is statistical, through construction of order statistics, histograms, cumulants, or weighted averages.  We will develop code generation methods to handle general nonlinear analysis functions.  The second analysis goes one step further by fitting the analyzed data to an assumed functional form using Bayesian inference.Due to the map-reduce structure of these computations, these analysis methods can be parallelized while retaining a high-level programming model.  This task requires automated consideration of data movement and task separation to match available computational resources.  The result will be published under an open source license, and be immediately useful to computational chemistry and biology applications analyzing large molecular dynamics simulations.This work will make use of the open science grid and Pegasus software as well as the TACC Longhorn data analysis cluster for systems and application comparison.  Project code storage on XWFS and scratch access on TACC will also be needed.  FutureGrid may be explored for compatibility with the Unicore workflow specification and Pegasus if its production status is extended past September.</Description>
		<PIName>David Rogers</PIName>
		<Organization>University of South Florida</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ztzfsirofyrb</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2126152924</ID>
		<Name>TG-ASC180023</Name>
		<Description>Campus Champion Guided Discovery of XSEDE Resources for Region 7 at the Roux Institute at Northeastern University</Description>
		<PIName>Scott Valcourt</PIName>
		<Organization>Northeastern University</Organization>
		<Department>Roux Institute</Department>
		<FieldOfScience>Applied Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/454t2lfhcfpp</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>154</ID>
		<Name>TG-AST140088</Name>
		<Description>The IceCube Neutrino Observatory is responsible for providing the IceCube collaboration with Monte Carlo data including cosmic-ray shower simulations and simulation of the IceCube detector response. These simulations are used for studying the systematics of our detector and performance of future geometries. In addition, a large volume of background cosmic ray simulation is needed in order to optimize data analyses.
A key component of simulating the IceCube detector is the correct modeling of the optical properties of the Antarctic ice which requires a lot of computation and has been adapted to run on GPUs.  

The IceProd framework is a software package developed for IceCube with the goal of managing productions across distributed systems and pooling together isolated computing resources that are scattered throughout the Collaboration. It consists of a central database hosted at University of Wisconsin-Madison and a set of daemons that are responsible for management of grid jobs as and data handling through the use of existing grid technology and network protocols. The IceCube Monte Carlo production is configured as a distributed workflow DAG that utilizes both CPU and GPU resources for various portions of the simulation chain. The intent is to utilize the Keeneland cluster in Georgia Tech to run GPU tasks and OSG for general CPU tasks through XSEDE. Intermediate files can be stored on a GridFTP server and are typically kept until the individual DAG completes.  For a large production run, a typical storage requirement might be on the order of 5 TB.
The IceCube collaboration would like to request an initial allocation of 100,000 SU’s. This allocation will be used to produce and reconstruct Monte Carlo simulations for the IC86 in-ice detectors as well as the IT81 surface detector.</Description>
		<PIName>Francis  Halzen</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>152</ID>
		<Name>TG-AST150012</Name>
		<Description>We request a startup allocation to support development on two related projects.  The main idea is to use three dimensional simulations to constrain the histories of observed galaxies. The majority of work (1) during the initial periods of this startup will be for Graduate Student S. Alireza Mortazavi to shift an existing Condor-based pipeline at the Space Telescope Science Institute (STScI) to the Open Science Grid in order to test and plan for an ambitious expansion of his research program to constrain the dynamical histories of galaxies (Mortazavi et al. 2015). PI Snyder will also begin to develop pipelines to exploit large-scale cosmological hydrodynamical simulations (2), which predict the evolution of entire populations of galaxies in representative model universes, requiring data-intensive computing.  

1.  Modeling the Initial Conditions of Interacting Galaxy Pairs Using Identikit

We use the Identikit software (Barnes &amp; Hibbard 2009, Barnes 2011; http://www.ifa.hawaii.edu/~barnes/research/identikit/ ) to model the dynamics of interacting galaxy pairs. By measuring the initial conditions of galaxy mergers, we can constrain both cosmology and galaxy astrophysics. A galactic encounter has several free parameters and it is time consuming to find the best match between model and data. However, Identikit combines multiple techniques to quickly explore parameter space to find the simulation most similar to the observed shape and constituent velocities. We have developed an automated pipeline based on the latest version of Identikit to scan parameter space and find robust matches and associated uncertainties (Mortazavi et al. 2015), implemented in an STScI-based Condor environment. We will continue to test our method against simulations of galaxy mergers to determine the systematic errors in our measurements. In addition, we will apply it to real data: We have observed a sample of ~30 interacting galaxy pairs using different telescopes. We have reached the limits of the HTCondor cluster at STScI, and therefore we seek to test the options available through XSEDE. We need around 50,000 SUs to compute matches and uncertainties of the measurements for each merging pair (observed or simulated), and so we are requesting a startup allocation of 150,000 SUs to perform tests while planning for a larger research allocation.  This research will have direct applications for interpreting data from the Sloan Digital Sky Survey-IV survey "Mapping Nearby Galaxies at APO" (MaNGA).

2.  Mock data applications from large hydrodynamical simulations

PI Snyder will develop methods for converting large cosmological simulations of galaxy formation (e.g., the Illustris Project www.illustris-project.org) into direct predictions for astronomical observatories.  With XSEDE resources, I will seek to expand our Mock Galaxy Observatory efforts in new and ambitious directions, such as creating synthetic survey fields and advanced spectroscopic data products.  For instance, we will explore the possibility of using large cosmological simulations as benchmarks for the Identikit modeling described in project 1.  For testing, we are requesting 50,000 SUs on Gordon, and Data Oasis storage of 5000GB, enough to store two Illustris Simulation (or similar) outputs plus post-processed data products.  In future allocation requests, we may seek to make these model archives available to the community through an XSEDE Gateway.</Description>
		<PIName>Gregory Snyder</PIName>
		<Organization>Space Telescope Science Institute</Organization>
		<Department>Unknown</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uj5felct2t3z</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>165</ID>
		<Name>TG-AST150033</Name>
		<Description>The Kepler Mission has detected dozens of compact planetary systems with more than four transiting planets. This sample provides a collection of close-packed planetary systems with relatively little spread in the inclination angles of the inferred orbits. A large fraction of the observational sample contains limited multiplicity, begging the question whether there is a true diversity of multi-transiting systems, or if some systems merely possess high mutual inclinations, allowing them to appear as single-transiting systems in a transit-based survey. Planet formation is an active yet poorly understood field: insight to the histories and dynamics of multi-planet systems would be helpful towards understanding planet formation as a whole. 

In previous work, we have determined the regimes of parameter space for which orbital inclinations can be effectively excited by planet-planet interactions among the currently observed bodies. We found that the orbital inclination angles are not spread out appreciably through self-excitation.  In contrast, we found that the two Kepler multi-planet systems with additional non-transiting planets are susceptible to oscillations of their inclination angles, which means their currently observed configurations could be due to planet-planet interactions alone. The multi-planet compact Kepler systems are found to be remarkably stable to oscillations of their inclination angles. The oscillations of inclination found in our previous work inform the recently suggested dichotomy in the sample of solar systems observed by Kepler. However, it would also be useful to study the behaviors of these systems with perturbing companions. This would enable a better understanding of the observed systems, resulting in a more accurate exoplanet population census. To do this, we must perform computationally intensive calculations and simulations.</Description>
		<PIName>Juliette Becker</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>195</ID>
		<Name>TG-AST150044</Name>
		<Description>We are requesting 1,700,000 SUs on Open Science Grid to model the initial conditions of a sample of 15 major galaxy mergers in the local universe. These measurements will place unique constraints on the role of galaxy mergers in shaping galaxy evolution, and on cosmological assembly. Our sample consists of 15 interacting galaxy pairs with Hα kinematic maps, 2 of which have both Hα and HI 2D kinematic maps and 3 of which are drawn from the SDSSIV MaNGA survey. We will use the Identikit software package (Barnes &amp; Hibbard 2009; Barnes 2011) and our automated pipeline to model the dynamics of interacting galaxy pairs and constrain their initial orbital parameters and merger stage.</Description>
		<PIName>Jennifer Lotz</PIName>
		<Organization>Space Telescope Science Institute</Organization>
		<Department>Astronomical Sciences</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uj5felct2t3z</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>313</ID>
		<Name>TG-AST150046</Name>
		<Description>We are using several large codes to search the photometric database from the Kepler satellite for stars that exhibit flares and starspots, to characterize the flare and starspot behavior and to extract information on starspot locations and properties using transiting planets as probes of stellar surface brightness variations.  The XSEDE resources will enable this project to proceed much more quickly than with the resources at our home institutions.</Description>
		<PIName>Suzanne Hawley</PIName>
		<Organization>University of Washington</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>353</ID>
		<Name>TG-AST160036</Name>
		<Description>Starspots are dark regions on a star's surface that trace areas of strong magnetic fields. On the Sun, spots are typically small and occur in bands near the stellar equator. Sunspot occurrence frequency also peaks every 11 years due to the "solar cycle". For younger stars there are indications that spots are larger, and can form near the stellar poles, while evidence for spot activity cycles on other stars is sparse. These differences indicate that the shape and strength of the internal magnetic dynamo evolves throughout a stars life. However, because of their great distance we cannot directly observe the surface of other stars to map the locations and sizes of spots. We have developed new software to model the signature of starspots in Kepler data from transiting exoplanet systems. These star-planet systems are unique in having an orbiting planet that passes directly in front of its parent star. When the planet transits the star, it will briefly pass over spots on the star's surface, giving a very small change in the apparent brightness of the system. To trace the evolution of spot size and location with stellar age we must extend our analysis to many star systems with different transiting planet orientations. A startup allocation from XSEDE will allow us to test our software's ability to map spots from different system orientations, and using many years worth of Kepler data.</Description>
		<PIName>James Davenport</PIName>
		<Organization>Western Washington University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4wx5i3zndzma</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>376</ID>
		<Name>TG-AST160046</Name>
		<Description>Our ultimate goal with this proposal is to understand how magnetic dynamos work on stars other than the Sun.   To do
 the science we propose which is to measure the typical starspot lifetime as a function of rotation rate and stellar mass and derive the starspot number and the spatial starspot distribution for stars other than the Sun, we must apply our light curve model
ing program to the full duration (4 years) of publicly available short cadence Kepler time series photometry of as many of our targets as possible. We must run the code many times per target in a Monte Carlo fashion in order to explore the full parameter s
pace of potential solutions. We must also do trials with different numbers of starspots in order to determine the optimal number of spots necessary to fit the light curves.   For this initial research allocation, we proposal to use the Open Science Grid to
 do a series of runs for 5 high priority targets:  HAT-P-11, Kepler-17, Kepler-63, KOI-340, and KOI-1786, using our STSP code designed specifically for high throughput computing.  The core code for the work has already been completed. Now, we need to run i
t many times in many different configurations in order extract the scientific results. This mode of operating is well suited to training the young students and scientists that will do this work.</Description>
		<PIName>Leslie Hebb</PIName>
		<Organization>Hobart and William Smith Colleges</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pnmgrixofiq9</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>399</ID>
		<Name>TG-AST170008</Name>
		<Description>The outer solar system has been a topic of intense scientific research for twenty-five years, but particularly within the past year. In January 2016, astronomers Mike Brown and Konstantin Batygin announced ``Planet Nine'' -- a hypothetical 10 Earth-mass object in the distant solar system responsible for the statistically significant orbital clustering of the longest-period trans-Neptunian objects (TNOs). Since this announcement, several more long-period TNOs have been discovered. Our specific research focus is studying the orbital dynamics of these objects, both absent of and in the presence of a Planet Nine, with the ultimate goal of determining the mostly likely orbit of a potential Planet Nine. Such a study requires numerical N-body simulations of hundreds of ``clones'' of each object, where a clone is produced by varying the orbital elements of an object within uncertainties. These simulations must encompass the entirety of the solar system's history after the formation of the planets, or approximately 4.5 billion years. Additionally, we must conduct these simulations for a suite of potential Planet Nines, further increasing the computational demand. We intend to ascertain which simulations, and therefore which configurations of Planet Nine, allow for the dynamical survival and force the orbital alignment of the longest period TNOs. The computational demand for these simulations far exceeds what is available to us on a laptop or desktop computer, and therefore we are requesting a Startup allocation on OSG to complete this work.</Description>
		<PIName>Stephanie Hamilton</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>573</ID>
		<Name>TG-AST190031</Name>
		<Description>The Resonance Hopping Effect in the Neptune-Planet Nine System</Description>
		<PIName>Tali Khain</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Planetary Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0203</FieldOfScienceID>
	</Project>
	<Project>
		<ID>615</ID>
		<Name>TG-AST190036</Name>
		<Description>Exo-Cartography: Constraining Planet Formation through Mapping the Three-Dimensional Architectures of Planetary Systems</Description>
		<PIName>Juliette Becker</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astronomical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>41</ID>
		<Name>TG-ATM130009</Name>
		<Description>The aim of this project is to create a global map that describes the functional distributions which characterize the spectraof precipitating auroral particles. Such a map would not only aid in efforts to model the ionosphere and the geospatial environment, but would also aid in the understanding of the magnetospheric source regions of these particles. The construction of this map will utilize programs that perform automated, nonlinear least squares fits of Maxwellian and Lorentzian distributions to data from the Defense Meteorological Satellite Program (DMSP) suite of spacecraft. These programs have been developed in C under the Fedora Coredistribution and are statically linked against the HDF4 and GNU Scientific libraries. Initial testing on an AMD Athlon II X4 645quad core processor has shown that the serial execution of four separate instances of the Maxwellian automated fitting program produces fits at an average rate of 1500 spectra per hour per core, while the Lorentzian program, when executed in the same fashion, will  produce fits at an average rate of 500 spectra per hour per core. The 20-year catalog of data which we will use to populate this map contains roughly 200 million spectra. With these average rates, it would take our 16-core cluster approximately 8300 hours to fit Maxwellian distributions and 25,000 hours to fit Lorentzian distributions to the entire catalog. Given this amount of processing time and the serial nature of our programs, we wish to explore the feasability of using your HTC resources to complete this project.</Description>
		<PIName>Phillip Anderson</PIName>
		<Organization>University of Texas at Dallas</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eouhp4r1y2e2</InstitutionID>
		<FieldOfScienceID>40.04</FieldOfScienceID>
	</Project>
	<Project>
		<ID>47</ID>
		<Name>TG-ATM130015</Name>
		<Description>The global distribution of precipitating auroral particles is a crucial input to models of the magnetosphere and the coupling between the magnetosphere-ionosphere. In particular, the spectral distributions which can be used to characterize the shape of precipitating electron spectra are equally important inputs to models and can be used provide information about the magnetospheric source regions of the precipitating particles. We detail the need for and the development of maps of characterized particle spectra and present a case for a resource request to aid with the development of these maps.</Description>
		<PIName>Phillip Anderson</PIName>
		<Organization>University of Texas at Dallas</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eouhp4r1y2e2</InstitutionID>
		<FieldOfScienceID>40.04</FieldOfScienceID>
	</Project>
	<Project>
		<ID>44</ID>
		<Name>TG-BCS110002</Name>
		<Description>The George E. Brown Jr. Network for Earthquake Engineering Simulation (NEES) project is a National Science Foundation funded project operating a shared national network of civil engineering experimental facilities that seeks to develop effective ways of mitigating earthquake damage and loss of life using improved designs, materials, construction techniques, and monitoring methods. Safer buildings and civil infrastructure are needed to reduce damage and loss from earthquakes and tsunamis. Preparing for and protecting against these threats makes American communities more resilient to future disasters. To support research in the Civil Engineering community that seeks to address these problems, NEES operates 14 distributed research equipment sites across the United States. The objectives of NEES are to: develop a national and multi-user research infrastructure to enable research and innovation in earthquake and tsunami loss reduction; create an educated workforce in hazard mitigation; and conduct broader outreach and lifelong learning activities. Experimental capabilities at the 14 NEES sites include large-scale shake tables, a tsunami wave basin, large-scale testing facilities, centrifuges, field and mobile facilities, a large-scale displacement facility, and cyberinfrastructure capabilities. NEEScomm, led by Purdue University, connects the 14 NEES research equipment sites and the earthquake engineering community with a powerful information technology infrastructure and a commitment to education, outreach and training related to earthquake engineering. The center facilitates community collaboration and discovery by working to advance research based on experimentation and computational simulations of the performance of buildings, bridges, utility systems, coastal regions, and geomaterials during seismic events. In conjunction with supporting research, NEES seeks to disseminate results through education, outreach, and training to reduce the devastation and loss of human life from earthquakes and tsunamis. Through a cooperative agreement with the National Science Foundation, the NEEScomm center is charged with leading and managing the operations of this national resource, and enabling collaboration between the 14 NEES research equipment sites and the earthquake engineering community through groundbreaking cyberinfrastructure, education and outreach efforts. NEES provides access to a variety of analysis and simulation tools for the NEES community, which includes OpenSees, OpenFresco, UI-SimCor, RDV, and Data Turbine. A groundbreaking cyberinfrastructure, the NEEShub (http://www.nees.org), connects researchers, practitioners, and the greater civil engineering community with the 14 research labs. NEEShub features the NEES Project Warehouse, which archives data gathered in all NEES experiments, along with a rich set of tools for data management, data viewing, and computational simulation. Most projects include, in addition to physical experimentation, a substantial computational component for comparison with and validation of the physical tests. As part of the Information Technology services provided to the NEES community, NEEScomm is expected to provide production quality cyberinfrastructure that is reliable and relevant to the needs of the NEES community, and to provide facilitated access to and use of campus and/or national computing resources. This proposal seeks to continue and extend the support for computational experiments in the NEES research community.</Description>
		<PIName>Thomas</PIName>
		<Organization>Purdue University</Organization>
		<Department>Computer &amp; Information Technology</Department>
		<FieldOfScience>Biological and Critical Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oe09ae0p2pmj</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>554</ID>
		<Name>TG-BIO180012</Name>
		<Description>Automatic knowledge base construction and hypothesis generation antibiotic resistance mechanisms for Escherichia coli</Description>
		<PIName>Ilias Tagkopoulos</PIName>
		<Organization>University of California, Davis</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f62wuiqfjmxm</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1202193772</ID>
		<Name>TG-BIO200038</Name>
		<Description>RNAMake Science Gateway: a public resource for the design and analysis of RNA 3D structure for custom nanomachines
</Description>
		<PIName>Joseph Yesselman</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>834</ID>
		<Name>TG-BIO210118</Name>
		<Description>Prediction accuracy of R-loop formation along the human genome</Description>
		<PIName>Gerald Quon</PIName>
		<Organization>University of California, Davis</Organization>
		<Department>Molecular and Cellular Biology</Department>
		<FieldOfScience>Genetics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f62wuiqfjmxm</InstitutionID>
		<FieldOfScienceID>26.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>751070568</ID>
		<Name>TG-BIO210164</Name>
		<Description>The project aims to build a dataset of bioelectrical dynamics of a simulated cluster of somatic cells. Bioelectric patterns in tissue are now known to be a critical instructive influence over embryonic and regenerative morphogenesis, as well as over conversion to cancer.</Description>
		<PIName>Michael Levin</PIName>
		<Organization>Tufts University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Cell Biology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vtcuoa0mgv9x</InstitutionID>
		<FieldOfScienceID>26.04</FieldOfScienceID>
	</Project>
	<Project>
		<ID>276665351</ID>
		<Name>TG-BIO250176</Name>
		<Description>This project aims to identify naturally derived molecules with the potential to inhibit VP37, a key orthopoxvirus protein targeted by the antiviral drug Tecovirimat. Using GROMACS for molecular dynamics simulations and AutoDock Vina for molecular docking, we will screen candidates from the COCONUT natural product database. ACCESS resources will be used to support MD simulations, and molecular docking.</Description>
		<PIName>Hagop Atamian</PIName>
		<Organization>Chapman University</Organization>
		<Department>Biological Sciences, Schmid College of Science and Technology</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wds3k660gq8j</InstitutionID>
		<FieldOfScienceID>26.0210</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1714536582</ID>
		<Name>TG-BIO250270</Name>
		<Description>Despite rapid advances in synthetic organic chemistry, many classes of small molecules remain inefficient to access using conventional methods. Enzymatic reactions, on the other hand, offer unparalleled potential for highly selective chemical transformations. By combining the power of modern enzyme engineering tools and advances in genome mining, The Renata laboratory aims to develop practical enzymatic solutions for traditionally challenging organic reactions, especially in the realm of C–H functionalization chemistry. The utility of these transformations will be showcased in the concise, scalable synthesis of bioactive natural products and their analogues, which in turn will serve as potential leads in drug discovery efforts or novel chemical probes to interrogate various cellular processes. Research projects are designed to be multi-faceted, providing students with broad exposure to synthetic organic chemistry, molecular biology, enzyme engineering and medicinal chemistry to ensure that they are well-equipped for future careers in both academia and industry. （https://renatalab.com/research/）</Description>
		<PIName>Xinpeng Mu</PIName>
		<Organization>Rice University</Organization>
		<Department>Department of Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>40.0504</FieldOfScienceID>
	</Project>
	<Project>
		<ID>78</ID>
		<Name>TG-CCR130001</Name>
		<Description>I am applying for a renewal of campus champion allocations for Stanford.</Description>
		<PIName>Ruth Marinshaw</PIName>
		<Organization>Stanford University</Organization>
		<Department>Research Computing</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>169</ID>
		<Name>TG-CCR140028</Name>
		<Description>This allocation request is as the Rutgers Campus Champion to help serve the Rutgers Academic Community better.</Description>
		<PIName>Shantenu Jha</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Computer Engineering</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>69</ID>
		<Name>TG-CDA080011</Name>
		<Description>Allocation needed for Campus Champion Activities</Description>
		<PIName>Vikram Gazula</PIName>
		<Organization>University of Kentucky</Organization>
		<Department>Center for Computational Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/532yhevnxlxc</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>97</ID>
		<Name>TG-CDA100013</Name>
		<Description>﻿﻿Campus Champion renewal to support the University of North Carolina at Chapel Hill.</Description>
		<PIName>Mark Reed</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>ITS Research Computing</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>39</ID>
		<Name>TG-CHE130091</Name>
		<Description>Compressed carbon dioxide is the main component of the mobile phase in supercritical fluid chromatography, which separates solutes according to their interactions with solid stationary phases. Molecular-scale properties of carbon dioxide in the mobile phase, confined near a stationary phase, and interacting with solutes can be calculated by Monte Carlo molecular simulation methods. Atomistic potentials for carbon dioxide, for solutes, and for the co-solvent methanol must be tested and refined to reliably simulate interactions at the pressure-temperature conditions of supercritical fluid chromatography. Simulation code now under development is well-suited to high-throughput computing in that it is serial, portable, and requires little RAM and disk storage. Because runs are long the code will be made check-pointable so simulations can efficiently use the Open Science Grid. The startup allocation requested will be to continue development of the serial simulation code, to modify it to allow restarting from a checkpoint file, then to test and improve atomistic potentials for solute and solvent molecules. It is against bulk fluid phase equilibrium data that potentials will be refined. Should service units remain after development work, computing will shift to characterizing the solvent within a few molecular diameters of stationary-phase and solute molecules.</Description>
		<PIName>Paul Siders</PIName>
		<Organization>University of Minnesota Duluth</Organization>
		<Department>Chemistry and Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4h44weyae1r3</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>51</ID>
		<Name>TG-CHE130103</Name>
		<Description>Energy transport in disordered systems coupled to a thermal environment is a topic that is exceedingly important for a diverse set of technological applications including organic photovoltaic solar cells, conducting polymers and a host of others. Unfortunately, at present the dynamics in these systems is not well understood. The primary difficulty is that one must accurately simulate the dynamics of relatively large open quantum systems over lengthy timescales and across a broad range of parameters. Here we request XSEDE resources to focus on two specific questions on the energy transport process that will provide both key fundamental insights, as well as useful design principles to guide the construction of more efficient materials. First, we extend the results of our previous allocation to examine the energy transport in two dimensional thin films with realistic dipolar interactions. These systems are expected to undergo a metal-insulator (Anderson) transition as a function of both the orientation of the molecular dipoles and the strength of disorder. Simulations will be performed to elucidate this phase diagram. Secondly, the nature of the transport in the weak system-bath coupling regime will be explored, wherein the dynamics are largely governed by coherent, quantum effects. The scaling properties of the transport in this regime will be determined, providing insights into the interplay of Anderson localization with the dynamics of open quantum systems.</Description>
		<PIName>Jeremy Moix</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>106</ID>
		<Name>TG-CHE140094</Name>
		<Description>Hybridization and denaturation transitions between DNA duplex and single stranded forms will be studied using Monte Carlo molecular simulation and a coarse-grained model.  Short oligomers, between 10 and 25 bases in length, will be studied for one to two sequences, for cases where both strands are in solution as well as where one strand is bound to a surface as a model for a DNA microarray.  The effects of temperature and of surface binding density will also be studied, and the results analyzed in terms of structural effects and hydrogen bonding patterns within the duplex.</Description>
		<PIName>John Stubbs</PIName>
		<Organization>University of New England</Organization>
		<Department>Chemistry and Physics</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0i20662pewxv</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>130</ID>
		<Name>TG-CHE140098</Name>
		<Description>The work proposed is Monte Carlo modeling of the interaction between mobile and sta-
tionary phases as they relate to supercritical fluid chromatography (SFC). Proposed research
continues that done with the startup allocation, which involved writing, testing, and porting
Monte Carlo code to model intermolecular interactions and fluid phase equilibria in com-
pressed carbon dioxide. Carbon dioxide is the main component of the mobile phase in SFC,
which typically operates at temperatures and and pressures above the critical point. The
objective of the proposed work is an understanding at the molecular level of the interac-
tion between mobile-phase molecules and the alkylsilane-coated silica stationary phase. The
computational method is Monte Carlo simulation, mainly in the constant-pressure Gibbs
ensemble. Hybrid molecular dynamics moves will be used for alklylsilane chains. Proposed
calculations will survey four alkylsilane coatings, eight pressures, three temperatures, and
three mobile-phase compositions. Compositions will be pure carbon dioxide and carbon
dioxide modified with 5% or 10% methanol. XSEDE resources requested are service units
on the Open Science Grid, which suits the small portable nature of the Monte Carlo code.
Weeks-long runs will be achieved by automatic resubmission of jobs.</Description>
		<PIName>Paul Siders</PIName>
		<Organization>University of Minnesota Duluth</Organization>
		<Department>Chemistry and Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4h44weyae1r3</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>128</ID>
		<Name>TG-CHE140110</Name>
		<Description>Monte Carlo molecular simulation together with a coarse-grained model is used to study the single-stranded to double-stranded transition in DNA both in solution and with one strand bound to a surface.  Representing DNA microarrays, hybridization on a surface is studied and the effect of surface density, strand length and sequence homology on duplex stability is investigated.  Results can better inform empirical surface hybridization models.</Description>
		<PIName>John Stubbs</PIName>
		<Organization>University of New England</Organization>
		<Department>Chemistry and Physics</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0i20662pewxv</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>330</ID>
		<Name>TG-CHE150012</Name>
		<Description>The overarching goal of the research to be performed using XSEDE resources is to characterize the thermodyanmic and dynamic driving forces  for the behavior and properties of systems at the molecular level. This work will involve calculation of molecular free energies of transfer between different systems, molecular flow in nanoporous materials, determination and refinement of molecular interactions in different environments, and simulations of biomolecular systems. One key focus of this work will by on optimizing our use of co-processor hardware, the Intel Xeon Phi cards in particular, to facilitate our brand of scientific discovery.</Description>
		<PIName>Christopher Fennell</PIName>
		<Organization>Oklahoma State University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ogvkim1urhzk</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>555</ID>
		<Name>TG-CHE170021</Name>
		<Description>Exact solutions of the Schrodinger equation for the helium atom</Description>
		<PIName>Shengli Zou</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Physical Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>561</ID>
		<Name>TG-CHE190012</Name>
		<Description>Numerical demonstration of chiral molecule separation using circularly polarized light in an achiral environment under mild condition</Description>
		<PIName>Shengli Zou</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>673</ID>
		<Name>TG-CHE190046</Name>
		<Description>Spectroscopic signatures of enhanced coherent transport in chemically modified light-harvesting systems</Description>
		<PIName>Jonathan Fetherolf</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Chemistry and James Franck Institute</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>701</ID>
		<Name>TG-CHE200063</Name>
		<Description>Unraveling Crystallization and Phase Transition Processes through Topology, Rare-event Simulation, and Machine Learning</Description>
		<PIName>Jerome Delhommelle</PIName>
		<Organization>University of North Dakota</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mxii12n9x22s</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>781</ID>
		<Name>TG-CHE200122</Name>
		<Description>Development of machine learning models for molecular simulations
The development of fast, accurate, and universal empirical potentials (EP) has been at the forefront of computational chemistry for many decades due to the high cost and bad scaling of accurate quantum mechanical (QM) methods and the low accuracy of more efficient classical force fields. The central goal of our project is bridging the speed and accuracy gap between these two approaches with machine-learning (ML) potentials. ML potentials have proven their ability to predict energies and other properties of molecules when trained on properly developed data sets. While these potentials are fast and accurate, the majority do not aim to become universal in their description of chemical interactions. This limits their use to only specific molecular systems or bulk materials. Our group developed probably the first universal ML atomistic potentials ANI-1x and ANI-2x for organic molecules containing CHNOSFCl atoms. Apart from other similar efforts in quantum chemistry and materials science, this neural network potential was shown to be transferable across different chemical environments, generalizing to the density-functional theory (DFT) level of accuracy on a large set of organic molecules while being six orders of magnitude faster. 
One of the main challenges with developing highly accurate and transferable ML potential is the construction of training and test datasets. We developed a fully automated approach for the generation of datasets with the intent of training universal ML potentials based on active learning (AL) techniques. AL reduces the training set size by up to 90% data required compared to naive random sampling techniques. Even with the AL technique employed, the dataset size required to train accurate and transferable ML potential is in the range of millions of conformers of small molecules (up to about 20 non-hydrogen atoms). We ended up with a dataset size of 5M molecular conformations for CHNO elements (ANI-1x), and an additional 5M data points to parametrize potential for SFCl elements (ANI-2x). 
Our goal in this project is to utilize a High-Throughput Computing (HTC) model to run a very large number of relatively small quantum-chemical calculations in order to build new datasets set for a subsequent training of neural network models. All  calculations  are  orchestrated  as  a  Manager-Worker  application  that  distributes  a  massive  number of tasks to workers using the Python RQ library. We plan to use a single Access Point provided by the HTCondor Software Suite (HTCSS) and operated by the Open Science Grid to host the Manager of the application and to deploy the workers across the XSEDE facilities and the OSPool. </Description>
		<PIName>Olexandr Isayev</PIName>
		<Organization>Carnegie-Mellon University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations>
			<ResourceAllocation>
				<Type>XRAC</Type>
				<SubmitResources>
					<SubmitResource>CHTC-XD-SUBMIT</SubmitResource>
					<SubmitResource>CHTC-ap40</SubmitResource>
				</SubmitResources>
				<ExecuteResourceGroups>
					<ExecuteResourceGroup>
						<GroupName>SDSC-Expanse</GroupName>
						<LocalAllocationID>cwr109</LocalAllocationID>
					</ExecuteResourceGroup>
				</ExecuteResourceGroups>
			</ResourceAllocation>
			<ResourceAllocation>
				<Type>Other</Type>
				<SubmitResources>
					<SubmitResource>CHTC-XD-SUBMIT</SubmitResource>
					<SubmitResource>CHTC-ap40</SubmitResource>
				</SubmitResources>
				<ExecuteResourceGroups>
					<ExecuteResourceGroup>
						<GroupName>TACC-Frontera</GroupName>
						<LocalAllocationID>CHE20009</LocalAllocationID>
					</ExecuteResourceGroup>
				</ExecuteResourceGroups>
			</ResourceAllocation>
		</ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3cqqrc2cgibl</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1475351923</ID>
		<Name>TG-CHE210056</Name>
		<Description>Unraveling Crystallization and Phase Transition Processes through Topology, Rare-Event Simulations, and Machine Learning</Description>
		<PIName>Jerome Delhommelle</PIName>
		<Organization>University of North Dakota</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Physical Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mxii12n9x22s</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>859221248</ID>
		<Name>TG-CHM210003</Name>
		<Description>This will allow for the determination of relative solubility of polymeric materials in alcohol solvents, similar to the shampoo and shaving cream materials. An understanding of the free energy of solvation and surface activity of polyethers and polysilicones will allow for the optimization of alcohol content in such mixtures to get the best bang for the buck in solubilizing and surface tension optimized alcohol-water mixtures with these polymers present.</Description>
		<PIName>Guy Mongelli</PIName>
		<Organization>University of Rochester</Organization>
		<Department>Chemical Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>14.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>713548387</ID>
		<Name>TG-CIE160039</Name>
		<Description>Campus Champions at Carnegie Mellon University</Description>
		<PIName>Franz Franchetti</PIName>
		<Organization>Carnegie-Mellon University</Organization>
		<Department>ECE</Department>
		<FieldOfScience>Engineering Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3cqqrc2cgibl</InstitutionID>
		<FieldOfScienceID>14.2701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>816055629</ID>
		<Name>TG-CIE170004</Name>
		<Description>This allocation enables Globus help desk and tech support personnel to troubleshoot issues and provide technical support for the Globus endpoints operated by ACCESS resource providers.</Description>
		<PIName>Lee Liming</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Globus Staff</Department>
		<FieldOfScience>Applied Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>644</ID>
		<Name>TG-CIE170019</Name>
		<Description>Real-Time Optimization of High Speed Data Transfers</Description>
		<PIName>Engin Arslan</PIName>
		<Organization>University of Nevada, Reno</Organization>
		<Department>Computer Science &amp; Engineering</Department>
		<FieldOfScience>Computer and Computation Research</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xavkx489i6pu</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>521</ID>
		<Name>TG-CIE170062</Name>
		<Description>This course will provide an overview of techniques in cluster computing, High Throughput Computing and High Performance computing. Students will start from the very basics of constructing a small two node cluster from first principles. Using this small cluster, students will learn a variety of topics about cluster configuration and management, files systems and how they affect workflows, constructing workflows, running applications locally and how to scale applications to larger systems. Initially the students will do most of their work on their two node clusters. We will then scale the workflows and run them using the University of Colorado High Energy Physics cluster; an OSG opportunistic resource provider (UColorado_HEP) and finally I would like to give the students the experience if running on very large systems. I do not envision the students needing high priority nor consuming large amounts of resources. I am much more interested in being able to provide the experience of "what is possible". The class will consist of between 30 and 40 students. Funding for this class comes from the United States State Department through the Fulbright Scholar Program.</Description>
		<PIName>Douglas Johnson</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1829007221</ID>
		<Name>TG-CIS210126</Name>
		<Description>Statistical analysis on keys generated by a lattice based cryptography algorithm for post-quantum cryptography to determine patterns in the types of errors produced in the keys.</Description>
		<PIName>Alexander Nelson</PIName>
		<Organization>University of Arkansas</Organization>
		<Department>Computer Science &amp; Computer Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/78b3lgmajszi</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>954766309</ID>
		<Name>TG-CIS250262</Name>
		<Description>ACCESS allocation for MST_Arifuzzaman. Elastic Data Transfer Optimizations</Description>
		<PIName>Md Arifuzzaman</PIName>
		<Organization>Missouri University of Science and Technology</Organization>
		<Department>Department of Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/a5fyyhl121i9</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>556</ID>
		<Name>TG-DBS170012</Name>
		<Description>Europa Lander Orbital Tours</Description>
		<PIName>James Howard</PIName>
		<Organization>Johns Hopkins University Applied Physics Lab</Organization>
		<Department></Department>
		<FieldOfScience>Advanced Scientific Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hv6wemek62rw</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>774</ID>
		<Name>TG-DDM160003</Name>
		<Description>OSG SP - Allocation for Service Provider testing and integration</Description>
		<PIName>Mats Rynge</PIName>
		<Organization>University of Southern California</Organization>
		<Department>Information Sciences Institute</Department>
		<FieldOfScience>Computer and Computation Research</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>70</ID>
		<Name>TG-DEB140008</Name>
		<Description>We propose to test community level population genetic patterns of coral reef fishes as they pertain to the Depth Refuge Hypothesis (DRH) of coral reefs by applying a statistical framework for multi-species analyses using hierarchical Approximate Bayesian Computation (hABC). The DRH specifies that deep reefs are protected from disturbances that effect shallow habitat and can provide a viable reproductive source for shallow reef areas following disturbance. It has been proposed that these foundation reefs may provide refuge not only from local disturbances such as storms or pollution, but can act as a refuge for geographically broad scale major disturbances such as the glaceoeustatic sea-level fluctuations that occur on the order of approximately 100k years at an amplitude of over 100m. During the Last Glacial Maximum (LGM) sea level was thought to have reduced shallow habitat by as much as 90% in the tropical Pacific possibly resulting in increased habitat fragmentation, local extinction, or bottlenecks. We will combine multi-taxa population genetic datasets into a single analysis to determine the proportion of the current community that historically expanded in a temporally clustered pulse, when the pulse occurred, and in what direction (i.e. from shallow water to shallow water across locations, deep water to adjacent shallow water, from shallow water to adjacent deep water, or deep water to deep water across locations.) across the Hawaiian archipelago.</Description>
		<PIName>Robert Toonen</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Unknown</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>38</ID>
		<Name>TG-DMR130036</Name>
		<Description>We request high throughput computing resources to perform diagrammatic Monte Carlo calculations of strongly correlated non-equilibrium electron systems. The calculations employ existing implementations of real-time quantum Monte Carlo algorithms for the solution of quantum impurity models, which have been tested and benchmarked; they also involve extensions to these algorithms which are currently under development. We will use these codes to address two types of physics problems: strongly correlated lattice systems treated within the dynamical mean field approximation, and exact properties of model systems for mesoscopic and molecular electronic junctions.</Description>
		<PIName>Emanuel Gull</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>132</ID>
		<Name>TG-DMR140072</Name>
		<Description>When bulk helium-4 is cooled below T = 2.18 K, it undergoes a thermodynamic phase transition to a superfluid, characterized by zero viscosity and quantization of flow.  The superfluid state of matter is a macroscopic manifestation of quantum mechanics, as it can be described by a single complex wave function with a phase that does not depend on position.  The phase coherence can be probed in a container filled with helium-4, by reducing one or more of its dimensions until they are smaller than the coherence length; the spatial distance over which order propagates.  As this dimensional reduction occurs, enhanced thermal and quantum fluctuations push the transition to the superfluid state to lower temperatures.  However, this trend can be countered via the proximity effect, where a bulk 3D superfluid is coupled to a low (2D) dimensional superfluid via a weak link producing superfluid correlations in the film at temperatures above the Kosterlitz-Thouless temperature. Recent experiments probing the coupling between 3D and 2D superfluid helium-4 have uncovered an anomalously large proximity effect, leading to an enhanced superfluid density that cannot be explained using the correlation length alone.We intend to explore the microscopic origin of this enhanced proximity effect via large scale quantum Monte Carlo simulations of helium-4 in a topologically non-trivial geometry that incorporates the important aspects of the experiments.  We will modify, test and deploy our research group's home-built high performance worm algorithm path integral quantum Monte Carlo code (http://code.delmaestro.org) at low temperatures with an eye toward improving efficiency through enhanced parallelization and hybridization.</Description>
		<PIName>Adrian Del Maestro</PIName>
		<Organization>University of Vermont</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mutx073mwd8x</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>557</ID>
		<Name>TG-DMR160157</Name>
		<Description>Numerical Study of Disordered Periodically Driven Criticality</Description>
		<PIName>William Berdanier</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>558</ID>
		<Name>TG-DMR180127</Name>
		<Description>Campus Champion for Arizona State University</Description>
		<PIName>Sirong Lu</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Research Computing</Department>
		<FieldOfScience>Materials Research</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>572</ID>
		<Name>TG-DMR190045</Name>
		<Description>1D nanoconfined helium: A versatile platform for exploring Luttinger liquid physics</Description>
		<PIName>Adrian Del Maestro</PIName>
		<Organization>University of Vermont</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mutx073mwd8x</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>672</ID>
		<Name>TG-DMR190101</Name>
		<Description>1D Nanoconfined Helium: A Versatile Platform for Exploring Luttinger Liquid Physics</Description>
		<PIName>Adrian Del Maestro</PIName>
		<Organization>University of Vermont</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mutx073mwd8x</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>71</ID>
		<Name>TG-DMS120024</Name>
		<Description>This allocation will be used to help MSU users transition from local HPC resources to XEDE resrouces.</Description>
		<PIName>Benjamin Ong</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Institute for Cyber Enabled Research</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>321</ID>
		<Name>TG-DMS150022</Name>
		<Description>This research project will focus on using high performance computing for accelerating the numerical methods for modeling the flows of viscoelastic liquids. The computational schemes developed for studying viscoelastic flows are based on an adaptive finite-volume discretization of the Navier-Stokes equations combined with various constitutive laws for viscoelastic liquids. The numerical method is based on a volume of fluid algorithm for tracking the interface, in case of the presence of a second phase. The numerical framework has parallel support using the MPI library, dynamic load-balancing, and parallel offline visualization. The parallel performance of the code will be tested and improved upon. Adaptivity combined with parallelization are essential components of the numerical framework, since transient computations of viscoelastic flows are often very intensive (due to small timestep and high mesh resolution required to resolve high stress regions) and therefore require a large computational resources.</Description>
		<PIName>Shahriar Afkhami</PIName>
		<Organization>New Jersey Institute of Technology</Organization>
		<Department>Mathematical Science</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zhy58gsknnaw</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>545</ID>
		<Name>TG-DMS180031</Name>
		<Description>Robust policy gradient improvement across multiple embodied morphologies</Description>
		<PIName>Thomas Merkh</PIName>
		<Organization>University of California, Los Angeles</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Applied Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4vhk41w4vvn6</InstitutionID>
		<FieldOfScienceID>27.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>674</ID>
		<Name>TG-DMS190036</Name>
		<Description>Modeling Random Directions and Simplex Transformations</Description>
		<PIName>Rayleigh Lei</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Statistics and Probability</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>27.0502</FieldOfScienceID>
	</Project>
	<Project>
		<ID>311</ID>
		<Name>TG-GEO150003</Name>
		<Description>The goal of this project is to implement Sol (a set of programs to compute solar insolation on complex landscapes and the energy available to drive weathering). These programs current run on University of Arizona machines but we wish to test their portability to OpenTopography.org using SDSC resources.</Description>
		<PIName>Jon Pelletier</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Geosciences</Department>
		<FieldOfScience>Geographic Information Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>45.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>33</ID>
		<Name>TG-IBN130001</Name>
		<Description>The hope for magnetoencephalographic (MEG) measurements has been to produce functional brain mapping with high spatial (mm) and temporal (msec) resolution. Realizing this hope requires answers to these questions: (1) How many sources are active within the brain? (2) Where are they located. (3) What is their time course? MEG Virtual Recording (MVR) provides these while producing noninvasive measures of intracranial neuroelectric currents as if from 2,000,000+ directly implanted electrodes. It does so from single trial (unaveraged) data, has no free parameters, and provides very strong probabilistic measures to validate the existence of each identified source. We have demonstrated efficient implementation of MVR on the Open Sciences Grid. The measured computational load of 400 SU per second of MEG data makes supercomputing essential to practical implementation of MVR. We anticipate that MVR will enable identification of specific neurophysiological biomarkers of a variety of non-structural brain pathologies which have been refractory to date, e.g. concussion, post-traumatic stress disorder.</Description>
		<PIName>Donald Krieger</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Neurological Surgery</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1148957795</ID>
		<Name>TG-INI200001</Name>
		<Description>Startup Allocation for Cloud based workloads</Description>
		<PIName>Timothy Middelkoop</PIName>
		<Organization>Internet2</Organization>
		<Department>Internet2</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rdbgla0ef33b</InstitutionID>
		<FieldOfScienceID>11.0902</FieldOfScienceID>
	</Project>
	<Project>
		<ID>36</ID>
		<Name>TG-IRI130016</Name>
		<Description>Analysis of geospatial imagery has become a promising approach for characterizing Weapons of Mass Destruction (WMD) proliferation. The goal of this project is to design algorithms and computer executable that can extract man-made objects (e.g., building, road, gate, etc.) from high-resolution images (recording the boundary and location, and possible type).</Description>
		<PIName>Joseph Cohen</PIName>
		<Organization>University of Massachusetts Boston</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Information, Robotics, and Intelligent Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/l6j63czttmv6</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>386</ID>
		<Name>TG-IRI160006</Name>
		<Description>Staff allocation to support the mission of the XSEDE Community Infrastructure (XCI) team comprised of the RACD and XCRI groups to facilitate interaction, sharing, compatibility, campus integration and SP Coordination of all relevant software and related services across the national CI community building on and improving on the foundational efforts of XSEDE.</Description>
		<PIName>Victor Hazlewood</PIName>
		<Organization>National Institute for Computational Sciences</Organization>
		<Department>None</Department>
		<FieldOfScience>Information, Robotics, and Intelligent Systems</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hp8930spi37u</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1775745695</ID>
		<Name>TG-IRI160007</Name>
		<Description>The mission of the XSEDE Cyberinfrastructure Integration (XCI) team is to facilitate interaction, sharing and compatibility of all relevant software and related services across the national CI community building on and improving on the foundational efforts of XSEDE. We need access to XSEDE resources for periodic testing of new software releases.</Description>
		<PIName>Richard Knepper</PIName>
		<Organization>Cornell University</Organization>
		<Department>Center for Advanced Computing</Department>
		<FieldOfScience>Applied Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>737</ID>
		<Name>TG-MAT200005</Name>
		<Description>Computer simulations of polymer grafted gold nanopores</Description>
		<PIName>Elena Dormidontova</PIName>
		<Organization>University of Connecticut</Organization>
		<Department>Institute of Materials Science</Department>
		<FieldOfScience>Materials Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eq81k8qpbcq9</InstitutionID>
		<FieldOfScienceID>14.1801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>307</ID>
		<Name>TG-MCB060061N</Name>
		<Description>This proposal is a request for supercomputer resources to carry out computations on five projects. The first project is to study the dynamics of a monoamine transporter in a novel single bilayer system. In this project we are investigating the resetting of the transporter through the movement of potassium ions. The second project is to calculate binding free energies for proposed antidepressant analogs that bind to serotonin. The third project is to investigate the aggregation properties of polyQ peptides. The fourth project is to study the electronic properties of diamond-like semiconductors using band structure methods. The fifth project is to apply quantum monte carlo methods to the study of water dimers and clusters.</Description>
		<PIName>Jeffry D. Madura</PIName>
		<Organization>Duquesne University</Organization>
		<Department>Chemistry &amp; Biochemistry</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7t36l6cq2c14</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>40</ID>
		<Name>TG-MCB090163</Name>
		<Description>This proposal requests CPU time on XSEDE resources for research aimed at understanding assembly and pattern formation in biological and biomimetic systems. The first two subprojects will use coarse-grained simulations to explore two processes which are essential for replication of many viruses: the assembly of capsid proteins around RNA and the simultaneous assembly and budding of capsid proteins through lipid bilayers. The third subproject will study pattern formation and spontaneous flow in a far-from-equilibrium system containing microtubules and motor proteins studied by our experimental collaborators, the Dogic Lab at Brandeis. A common goal in each of the three subprojects is to reveal structural and dynamical information about key intermediates which are not accessible to experiments. The simulations of capsid assembly around RNA will be performed with the program HOOMD which enables great computational speedups on GPUs. The simulations of capsids assembling on lipid bilayers will use LAMMPS which affords excellent scaling for the large membranes being considered. The simulations of microtubules and motor proteins will use a self-written code optimized to characterize high aspect ratio, extensile bundles. Funding for Subprojects 1 &amp; 2 is provided by NIH NIAID (R01AI080791) and Subproject 3 is funded by the NSF (NSF-MRSEC-0820492).</Description>
		<PIName>Michael Hagan</PIName>
		<Organization>Brandeis University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/z5fxzhzsjpb0</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>50</ID>
		<Name>TG-MCB090174</Name>
		<Description>We propose to use multiple XSEDE resources to study several scientific problems. This work is built on theextensive efforts over the past three years we have carried out within a wide range of computational science,cyberinfrastructure and computer science projects, requiring us to use concurrent multiple resources onXSEDE. Specifically, in this proposal we request 10.04M on Stampede, 2.07M on Kraken, 0.37M on Tres-tles and 0.1M on Blacklight for four distinct projects: (i) Atomisitic simulation of Physiological Systems;Extensible and Scalable middleware and tools for XSEDE and Open Science Grid.This proposal is fundamentally multi-disciplinary and collaborative. Importantly resources being re-quested are part of and supported by multiple federally funded and even International funded projects (inconjunction with NSF). This work is primarily funded by NSF CAREER Award (OCI-1253644; PI Jha), aswell as by NSF Cyber-enabled Discovery and Innovation Award (CHE-1125332; co-PI Jha), NSF-ExTENCIergy Award (ASCR, DE-FG02-12ER26115, PI Jha). A significant grant (ExTASY) as part of the US-UKNSF-EPSRC call in Chemsitry has been awarded at the UK end and is awaiting processing at the US end.</Description>
		<PIName>Shantenu Jha</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>None Stated</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>37</ID>
		<Name>TG-MCB100109</Name>
		<Description>The purpose of this proposal is to renew our XRAC Allocation TG-MCB100109. During the past year, this allocation has provided us with sufficient resources to further optimize our weighted ensemble path sampling software for the efficient simulation of rare events and to apply the software to the simulation of association kinetics for a model protein-peptide system (the MDM2-p53 peptide complex). We now request a larger allocation to enable the application of the weighted ensemble approach to explicit solvent simulations of binding events for a model protein-protein complex (barnase-barstar complex) with rigorous calculation of association rates. This allocation will also enable the QM/MM simulations of a diffusion-controlled chemical reaction in solution (the addition of azide ion to a series of triphenylmethyl-derived cations) with the aid of the weighted ensemble approach. These applications will be important milestones two grand challenges in computational chemistry: 1) the simulation of protein binding events, and 2) the simulation of chemical reactions in solution. It would not be possible to make meaningful progress on these simulations without the requested allocation on the XSEDE resources.</Description>
		<PIName>Lillian Chong</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>46</ID>
		<Name>TG-MCB130072</Name>
		<Description>This allocation will be used to help MSU users transition from local HPC resources to XEDE resrouces</Description>
		<PIName>Benjamin Ong</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Institute for Cyber Enabled Research</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>134</ID>
		<Name>TG-MCB130135</Name>
		<Description>Meta-genomics and Cancer research data</Description>
		<PIName>Ashok Mudgapalli</PIName>
		<Organization>University of Nebraska Medical Center</Organization>
		<Department>Research IT Office</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/01g2a0xhkmrv</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>327</ID>
		<Name>TG-MCB140088</Name>
		<Description>The molecules of life are large, complex machines that drive the operations of the cell. Modeling the atomic structure and underlying dynamics of these molecules is critical for understanding disease and developing therapeutics. Recent advances in experimental instrumentation and scientific software have have made high resolution biological structures more accessible than ever, but large data volumes and complex calculation often require extensive computation. Cryo-electron microscopy (Cryo-EM), for example, can now reveal structures from heterogeneous biological samples to atomic resolution - better than 3 angstroms. These structures require terabytes of experimental data and upwards of 20,000 hours of compute time for accurate determinations to be made. X-ray crystallography, the workhorse of structural biology, can now combine complex computational modeling algorithms like Rosetta with experimental data to arrive at a complete structure determination, which may require more than 1000 hours of compute time. Drug discovery efforts have embraced computational “virtual screening’ to filter the most likely targets from vast drug fragment libraries by combining computational chemistry and experimentally-determined molecular structures. In these screens, the only limit to the number of drug candidates screened is computational time.  Finally, molecular dynamics simulations give insight into the motions biological molecules adopt as they perform their jobs, but also require high-performance computing resources for meaningful results. As a Campus Champion at Harvard Medical School and SBGrid, I support the research computing needs of a diverse structural biology community and XSEDE is an essential resource in driving this critical research.</Description>
		<PIName>Jason Key</PIName>
		<Organization>Harvard Medical School</Organization>
		<Department>BCMP / SBGrid</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>84</ID>
		<Name>TG-MCB140160</Name>
		<Description>Description: RNA aptamers are small oligonucleotide molecules (~100 nucleotides) whose composition and resulting folded structure enable them to bind with high affinity and high selectivity to specific target ligands and therefore hold great promise as potential therapeutic drugs. The first aptamer to receive FDA approval was pegaptanib (Macugen), which is a treatment for wet age-related macular degeneration, a degenerative disease of the macula of the eye that leads to the loss of central vision. The pegaptanib aptamer acts by binding to and inhibiting the action of an isoform of vascular endothelial growth factor (VEGF), arresting degeneration. Functional aptamers are selected from a large, randomized initial library in a process known as SELEX (systematic evolution of ligands by exponential enrichment). This is an iterative process involving numerous rounds of binding, elution, and amplification against a specific target substrate. During each iteration - or round of selection - we enrich for the species with the highest binding affinity to the target. After multiple rounds, we ideally have an enriched aptamer library suitable for subsequent investigation. Modern techniques employ massively parallel sequencing, enabling the generation of large libraries (~10^{6} sequences) in a matter of hours for each round of selection. As RNA is single-stranded, the covariance model (CM) approach (Eddy, SR, Durbin, R (1994). RNA sequence analysis using covariance models. Nucleic Acids Res., 22, 11:2079-88) are ideal for representing motifs in their secondary structures, allowing us to discover patterns within functional aptamer populations following each round. CMs have been implemented in 'Infernal' (http://infernal.janelia.org)  a program that infers RNA alignments based on RNA sequence and structure. Calibrating a single CM in Infernal however can take several hours and is a significant performance bottleneck for our work. However, as each CM calculation is itself independently determined and requires defined pr!
 ocessing
 and memory resources, their computation in parallel using the Open Science Grid offers a potential solution to this problem. Using part of a Campus Champion award to our institution, we have prototyped such a solution by making use of the Simple API for Grid Applications (SAGA) to interface with OSG and manage job submissions and file transfers. When run in parallel, our results showed a significant speed up, constrained by typical latencies and QoS associated with nominal OSG usage. This prior study demonstrated the feasibility of using SAGA and the OSG to support the parallelization of CM analysis of such large scale sequence based aptamer libraries, and forms the basis of this startup allocation request to further constrain workflow productivity and support the PhD research of Mr. Kevin Shieh.</Description>
		<PIName>David Rhee</PIName>
		<Organization>Albert Einstein College of Medicine</Organization>
		<Department>Genetics</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yzcm7hs9f1d0</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>137</ID>
		<Name>TG-MCB140211</Name>
		<Description>Why would a genotypically homogeneous population of cells live to different ages? We propose a mathematical model of cellular aging based on gene interaction network.  This model network is made of only non-aging components, and interactions among genes are inherently stochastic. Death of a cell occurs in the model when an essential gene loses all of its interactions. The key characteristic of aging, the exponential increase of mortality rate over time, can arise from this model network with non-aging components. Hence, cellular aging is an emergent property of this model network. The model predicts that the rate of aging, defined by the Gompertz coefficient, is proportional to the number of active interactions per gene and that stochastic heterogeneity is an important factor in shaping the dynamics of the aging process. Hence, the Gompertz parameter is a proxy of network robustness. Preliminary studies on how aging is influenced by power-law configuration, synthetic lethal interaction, and allelic interactions will be presented. A general framework to study network aging as a quantitative trait will be studied, and the implication on missing heritability will be investigated. Empirical results to support these theoretic studies will also be presented. Preprint for the basic model is available at http://arxiv.org/abs/1305.5784</Description>
		<PIName>Hong Qin</PIName>
		<Organization>Spelman College</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/tls5zf8zntze</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>147</ID>
		<Name>TG-MCB140232</Name>
		<Description>A longstanding goal of molecular simulations is to accurately predict the three-dimensional fold of a biopolymer given only knowledge of its primary sequence. Although recent work has demonstrated the successful folding of proteins ranging from 10-80 amino acids from the unfolded state, no comparable results exist for the folding of structured RNAs. In recent work, we have shown that this is a result of underlying inaccuracies in the energy model itself, due to underlying assumptions that work well for describing amino acids but are inapplicable for describing nucleic acids in solution. We have systematically corrected these biases in order to more accurately capture the inherent flexibility of single-stranded RNA loops, accurate base stacking energetics, and purine anti-syn interconversions. In a departure from traditional quantum chemistry-centric parameterization schemes, we calibrate the molecular mechanics potentials directly against the relevant thermodynamic and kinetic measurements of aqueous nucleosides and nucleotides. This application is to continue the kinetic, thermodynamic characterization of improved RNA force-field to enable de-novo RNA folding.</Description>
		<PIName>Alan Chen</PIName>
		<Organization>State University of New York at Albany</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9adt6gcsr8c</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>162</ID>
		<Name>TG-MCB140268</Name>
		<Description>The genome of many viruses is represented by a long single-stranded ribonucleic acid (RNA)  molecule that appears to fold into a highly compact organized structure inside the viral shell. Such structure contains a variety of topological motifs, such as hairpins, bulges, multi-loops, and notably RNA pseudoknots.  RNA pseudoknots play an important role also in natural RNAs for structural, regulatory and catalytic functions in various biological processes. In particular, it has been recently recognized an interesting interplay between the shape, structure and assembly of icosahedral viral capsids, and the compact RNA packaging topology.  The topology of RNA pseudoknots can be effectively studied by using Random Matrix Theory (RMT), by exploiting a correspondence between a graphical representation of RNA structures with pseudoknots and Feynman diagrams of a particular field theory of large random matrices. The theoretical framework of RMT provides a natural analytic tool for the prediction and classification of pseudoknots, since all Feynman diagrams can be organized in a mathematical series, called topological expansion. The PI is interested in studying numerically some recent matrix models based on RMT to describe the structure of viral RNA encapsidated in a viral icosahedral shell.  The PI has long experience in the application of RMT to the study of RNA pseudoknots with RMT, as well as on the simulation of the geometry and shapes of icosahedral shells.  
The simulations the PI intends to perform on XSEDE are Monte Carlo runs of large stochastic matrices, since the matrix model is naturally formulated as zero-dimensional SU(N) field theory  of  Hermitian matrices.  The number of matrices L is equal to number of nucleotides of the RNA molecules, which in viral RNAs can be of the order of L~10^3.  Past preliminary studies showed that the size N of the matrices should be sufficiently large to appreciate topological corrections of the order 1/N^2 and 1/N^4 (at least), which implies the simulation of Hermitian random matrices of order N~24 or N~32. Since the number of degrees of freedom for each matrix is N^2~1024, the configuration space has L*N^2~ 10^6 degrees of freedom. While matrix multiplication can benefit of parallel computing capabilities, the need of performing Monte Carlo simulations orients the PI to request High Throughput Computing resources for this initial XSEDE Startup application. Such initial experience will provide the PI a baseline to evaluate the possibility to steer future versions of the code towards HPC capabilities, including GPU or CPU-GPU clusters. Current local computational capabilities are sufficient for developing the codes and running toy-model simulations (N~4), but do not satisfy the PI’s needs for research purposes of large realistic systems. Therefore, XSEDE startup resources are requested to test larger systems, optimize the code and explore code’s scalability, as well as familiarize with the XSEDE platform.
(1 row)</Description>
		<PIName>Graziano   Vernizzi</PIName>
		<Organization>Siena College</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kd5q9wxz5757</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>546</ID>
		<Name>TG-MCB150001</Name>
		<Description>Large-Scale Modeling of Macromolecular Binding Equilibria</Description>
		<PIName>Emilio Gallicchio</PIName>
		<Organization>CUNY Brooklyn College</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lbg0jt5w2rks</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>241</ID>
		<Name>TG-MCB150090</Name>
		<Description>Solvation strongly affects the structures and properties of molecules.  Molecular simulations for many problems in chemistry, physics, and biology require an accurate depiction of solvation, and the most ubiquitous and important solvent is water.  Yet, water is difficult to model in molecular simulations - fast but sometimes erroneous modeling can be done with continuum solvent models, or relatively accurate but expensive modeling can be done explicitly.  Users must generally compromise accuracy and efficiency for the problem of interest.  Though widespread efforts are directed at testing water models, much of this work is duplicative and incomplete.  Here we propose extensive computer simulations of biomolecular solvation using XSEDE.  These simulations will provide a systematic database of solvation free energies for a large and diverse set of biomolecules and conformations.  This database will extend our understanding of molecular solvation and will provide a communal resource for the development of continuum solvent models, a focus of many groups throughout the field.</Description>
		<PIName>Emiliano Brini</PIName>
		<Organization>State University of New York at Stony Brook</Organization>
		<Department>Laufer Center</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qqd2s2b6m7eh</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>540678325</ID>
		<Name>TG-MCB160020</Name>
		<Description>Hands on Training on Robust Molecular Simulations Introduces students to the exciting areas in Computational Biophysics, drug design, bioinformatics and potentially other computing intensive fields</Description>
		<PIName>Rejwan Ali</PIName>
		<Organization>Icahn School of Medicine at Mount Sinai</Organization>
		<Department>Neurology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uwam2e6xh8l2</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>337</ID>
		<Name>TG-MCB160027</Name>
		<Description>Knowledge of 3D protein structures is paramount towards our understanding of biochemistry. Currently, there are many more known protein sequences than 3D protein structures and experimentally determining their structure can be both expensive and time consuming. Therefore, extensive efforts have been made to model these structures using computational methods. Our group has developed the I-TASSER method, which constructs protein structure models by iteratively assembling structure fragments obtained by multiple threading algorithms. The method was stringently tested in the community-wide CASP experiments and has been widely used by the community, including more than 65,000 registered scientists from 122 countries. Despite its success, a major obstacle in the optimization of I-TASSER involves a dearth of computational resources available for use. We have access to a computing cluster composed of 1,100 cores. However, I-TASSER has seen a surge in users on our web server, and as a result, there have been over 2,000 jobs waiting or running at any one time, far exceeding our current capacity. Therefore, an increase in computational resources for our research interests would greatly benefit the further optimization of the I-TASSER method, as well as the biological and medical community as a whole. Over the course of this allocation, we expect to run approximately 400 I-TASSER jobs; each of these jobs would take 500 CPU hours, thus we would require roughly 200,000 CPU hours total. This will be of critical importance for the improvement of the I-TASSER methods and enhance its capacity to serve for the general biological community.</Description>
		<PIName>Yang Zhang</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Department of Computational Medicine and Bioinformatics</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>379</ID>
		<Name>TG-MCB160069</Name>
		<Description>Experiments have shown that co-translational phe
nomena can strongly influence protein function.  A mechanistic understanding of co-translational phenomena such as nascent chain tension and protein misfolding can be gained with molecu
lar dynamics simulations using multi-scale models of ribosome-nascent chain complexes (RNCs). Using atomistic and coarse-grained models of RNCs, we will measure the magnitude of the mec
hanical force generated by co-translational folding, determine the effects of folding domain size and stability on this force, and investigate how codon translation rates can alter the 
probability of folding and misfolding.</Description>
		<PIName>Edward O'Brien</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>387</ID>
		<Name>TG-MCB160192</Name>
		<Description>Proteins custom-designed for specific molecular function have great promise to advance many areas of science and industry. High throughput methods – in particular, effective computational modeling of structure and function – are necessary to identify proteins with novel functions out of the vast number of candidate protein sequences. Nevertheless, state-of-the-art methods have only limited accuracy in predicting the functional impact of even a few mutations.

To improve models for functional proteins, we are developing methods within the Rosetta computational protein design software suite that represent subtle structural fluctuations using flexible-backbone ensembles and integrate multiple functional constraints on proteins (i.e. catalytic conformations or binding partners). Promising initial results demonstrated improvement over standard fixed-backbone approaches in initial tests against large curated mutational datasets for experimentally determined binding affinities and high-throughput screening of protein-protein interactions. 

Our approach of using discrete ensembles to model flexible and dynamic systems is well suited to the distributed nature of high performance computing clusters. Our goal of predicting the functional effect of defined sequences is likewise well suited. In particular, the Open Science Grid will be very useful for our high-processing, low-memory requirements. The purpose of this Startup request is two-fold: benchmarking and optimizing computational methodologies to model functional proteins. First, we will streamline our methodology for XSEDE in preparation for a Research allocation application. Second, additional computing resources from XSEDE will greatly expand our ability develop methodology beyond the limitations of benchmarking on the computational resources at our home institution.</Description>
		<PIName>Samuel Thompson</PIName>
		<Organization>University of California, San Francisco</Organization>
		<Department>Bioengineering and Therapeutics</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7nlvlasx7q46</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>547</ID>
		<Name>TG-MCB170126</Name>
		<Description>Demographic analysis using ARGweaver</Description>
		<PIName>Melissa Hubisz</PIName>
		<Organization>Cornell University</Organization>
		<Department>Biological Statistics and Computational Biology</Department>
		<FieldOfScience>Genetics and Nucleic Acids</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>26.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>548</ID>
		<Name>TG-MCB190026</Name>
		<Description>Global and Local Matching of Electron Microscopy Density Maps</Description>
		<PIName>Daisuke Kihara</PIName>
		<Organization>Purdue University</Organization>
		<Department>Biological Sciences/Computer Science</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oe09ae0p2pmj</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>512</ID>
		<Name>TG-MCB190187</Name>
		<Description>Eco-Evolutionary Feedback and Dynamics in the Long-Term E. coli Evolution Experiment</Description>
		<PIName>Joao Ascensao</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Bioengineering</Department>
		<FieldOfScience>Genetics and Nucleic Acids</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>26.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1778701075</ID>
		<Name>TG-MCH210037</Name>
		<Description>Engineering the electro-mechanical properties of Twisted Bilayer Graphene with strained capping layers</Description>
		<PIName>Hesam Askari</PIName>
		<Organization>University of Rochester</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Mechanical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>14.1901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>651772366</ID>
		<Name>TG-MED220017</Name>
		<Description>Tuberculosis (TB), caused by Mycobacterium tuberculosis (Mtb), is the main cause of death from infectious diseases, other than COVID-19, leading to 1.3 million deaths in 20203. The main pathological feature of TB disease is the formation of lung granulomas, dense collections of host immune cells, bacteria and dead cell debris. It is within these granulomas that the bacteria persist ad where the host immune system interacts with and responds to the bacterial infection4. Granulomas are highly complex structures that evolve over months to years within patients (Fig 1A). In vivo studies in humans, primates and mice have elucidated many of the key mechanisms involved in longer-term granuloma function. In vitro experiments can recreate certain aspects of granulomas in the lab, by combining host immune cells and bacteria in cell cultures5. These in vitro systems allow for closer investigation of the early dynamics of granuloma formation, which are difficult to capture and measure experimentally in vivo in lung tissue. The downside of the more complex in vitro systems with multiple cell types and design variables, is that they are difficult to analyze and optimize. Our computational models support and accelerate the analysis and design of such complex in vitro systems, in close collaboration with experimental groups.</Description>
		<PIName>Elsje Pienaar</PIName>
		<Organization>Purdue University West Lafayette</Organization>
		<Department>Biomedical Engineering</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/y2m2tk3a8pp6</InstitutionID>
		<FieldOfScienceID>26.1201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>35</ID>
		<Name>TG-OCE130029</Name>
		<Description>Methods that integrate population sampling from multiple taxa into a single analysis are a much needed addition to the comparative phylogeographic toolkit.  Here we present a statistical framework for multi-species analysis based on hierarchical approximate Bayesian computation (hABC) for inferring community dynamics and concerted demographic response.  Detecting community response to climate change is an important issue with regards to how species have and will react to past and future events.  Furthermore, whether species responded individualistically or in concert is at the center of related questions about the abiotic and biotic determinants of community assembly.  This method combines multi-taxon genetic datasets into a single analysis to determine the proportion of a contemporary community that historically expanded in a temporally clustered pulse as well as when the pulse occurred.  We will apply this method to 59 species in the Hawaiian Archipelago in order to examine community response of coral reef taxa to sea-level change in Hawaii.  The method can accommodate dataset heterogeneity such as variability in effective population size, mutation rates, and sample sizes across species and utilizes borrowing strength from the simultaneous analysis of multiple species.  This hABC framework used in a multi-taxa demographic context can increase our understanding of the impact of historical climate change by determining what proportion of the community responded in concert or independently, and can be used with a wide variety of comparative phylogeographic datasets as biota-wide DNA barcoding data sets accumulate.</Description>
		<PIName>Yvonne Chan</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Hawaii Institute of Marine Biology</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>123</ID>
		<Name>TG-OCE140013</Name>
		<Description>Methods that integrate population sampling from multiple taxa into a single analysis are a much needed addition to the comparative phylogeographic toolkit. Here we present a statistical framework for multi-species analysis based on hierarchical approximate Bayesian computation (hABC) for inferring community dynamics and concerted demographic response. Detecting community response to climate change is an important issue with regards to how species have and will react to past and future events. Furthermore, whether species responded individualistically or in concert is at the center of related questions about the abiotic and biotic determinants of community assembly. This method combines multi-taxon genetic datasets into a single analysis to determine the proportion of a contemporary community that historically expanded in a temporally clustered pulse as well as when the pulse occurred. We will apply this method to 59 species in the Hawaiian Archipelago in order to examine community response of coral reef taxa to sea-level change in Hawaii. The method can accommodate dataset heterogeneity such as variability in effective population size, mutation rates, and sample sizes across species and utilizes borrowing strength from the simultaneous analysis of multiple species. This hABC framework used in a multi-taxa demographic context can increase our understanding of the impact of historical climate change by determining what proportion of the community responded in concert or independently, and can be used with a wide variety of comparative phylogeographic datasets as biota-wide DNA barcoding data sets accumulate.</Description>
		<PIName>Yvonne Chan</PIName>
		<Organization>University of Hawaii at Manoa</Organization>
		<Department>Hawaii Institute of Marine Biology</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/34mcskejwysy</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>43</ID>
		<Name>TG-PHY110015</Name>
		<Description>We propose to investigate signatures for the discovery of new physics at the LHC which would run at a center of mass energy of either 7 TeV, 8 TeV, 10 TeV or 14 TeV. Our goal is to first study the Standard Model background at these energies, and then develop analyses that strongly highlight and discriminate theories of new physics. We will use our actively developed software, FastSUSY, to carry out Bayesian analyses that estimate the parameters of the various models of new physics, in light of the most recent data. We also propose to study topological invariants of manifolds that are important in String Theory, searching for correlations to algebraic structures relevant to model building, and compute the properties of the vacua associated with these geometries. Additionally, we wish to extend our analyses to models of supergravity that including CP-violating phases. Our total request is for 7 million SUs and 5 TB of disk space for the proposed projects.</Description>
		<PIName>Pran Nath</PIName>
		<Organization>Northeastern University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/454t2lfhcfpp</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>34</ID>
		<Name>TG-PHY120014</Name>
		<Description>The discovery of a Higgs-like particle, announced in June 2012 by CERN, was a defining moment in the field of high energy physics. The excitement of this finding was felt world-wide and is a breakthrough in our understanding of the Universe at a fundamental level.   Saying therefore that we now live in a post-Higgs era in high energy physics is no exaggeration. This breakthrough by the Large Hadron Collider (LHC) is just a first step towards testing much extensive theories such as supersymmetry and grand unification. Computing tools played an important role in the discovery of the Higgs and the need for these tools to explore ideas beyond the Standard Model is ever increasing. Resources like XSEDE therefore provide an opportunity to use cutting edge computing tools in order to explore novel ideas in high energy physics. Our startup allocation of 150,000 SU's resulted in four peer reviewed publications. With the second allocation of 3 million SUs our group managed to  complete 10 articles out of which 7 have been published in peer reviewed journals and three are in process. The data for two other projects have been collected. These projects resulted from the consumption of only 32% of the total SUs that were allocated. Our consumption of the SUs was much less than anticipated since we have improved the computing techniques we use in our projects. We are therefore requesting an extension of our current SUs since a surplus of SUs is always useful for us to pursue projects even if the SU requirement is high.</Description>
		<PIName>Qaisar Shafi</PIName>
		<Organization>University of Delaware</Organization>
		<Department>Physics and astronomy</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/j2iu11x3iayo</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>549</ID>
		<Name>TG-PHY130048</Name>
		<Description>Campus Champion Renewal</Description>
		<PIName>Dodi Heryadi</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department></Department>
		<FieldOfScience>Advanced Scientific Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>750</ID>
		<Name>TG-PHY140048</Name>
		<Description>Campus Champion Allocation -- APSU</Description>
		<PIName>Justin Oelgoetz</PIName>
		<Organization>Austin Peay State University</Organization>
		<Department>Physics, Engineering &amp; Astronomy</Department>
		<FieldOfScience>Science and Engineering Education</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/epwuin5ootnr</InstitutionID>
		<FieldOfScienceID>13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>310</ID>
		<Name>TG-PHY150040</Name>
		<Description>IceCube is a neutrino detector built at the South Pole by instrumenting about a cubic kilometer of ice with 5160 light sensors. IceCube is taking data since 2006, and it is envisioned to continuing doing so for the next 20 years. One of the primary goals for IceCube is to elucidate the mechanisms for production of high-energy cosmic rays by detecting high-energy neutrinos from astrophysical sources. The excellent performance of IceCube plus the advances in understanding fundamental detector characteristics such as the ice properties have allowed to expand its scientific reach towards measurements and searches that require much higher precision and control of systematic error sources. Examples of these are the measurement of neutrino oscillations in a previously unexplored energy range from 10 to 60 GeV. The simulations proposed in this request will enable carrying out neutrino physics precision analysis which require of a very good understanding of possible sources of systematic errors. Examples of these are Tau neutrino appearance and Muon neutrino disappearance precision measurements as well as searches for low energy sterile neutrinos.</Description>
		<PIName>Francis Halzen</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>314</ID>
		<Name>TG-PHY160001</Name>
		<Description>XSEDE resources will be used to generate several trillion simulated collision events for the CERN Large Hadron Collider Experiment.  The simulated events will be generated by the Monte Carlo simulation program called Herwig 7 (herwig.hepforge.org) interfaced with the module HJets++ (hjets.hepforge.org). The primary focus will the simulation of the scattering of two protons into a Higgs boson is association with jets (H+3 Jets). Jets are are clusters of energetic hadrons. Hadrons are composite particles that are comprised of fundamental particles called quarks and gluons.  Results for the next-to-next leading order QCD corrections of H+3 Jets have been published in Physical Review Letters (http://journals.aps.org/prl/abstract/10.1103/PhysRevLett.111.211802).  However, further simulations are required to evaluate the theoretical uncertainties for the integrated scattering cross-section and kinematics distributions for H+3 Jets.  In order to evaluate the scattering cross-section with a Monte Carlo integration error of 1 per mille, it is necessary to simulate at least a trillion weighted events.  The parallel computing computing environment that XSEDE provides will provide the necessary events to achieve lower integration errors.</Description>
		<PIName>Terrance Figy</PIName>
		<Organization>Wichita State University</Organization>
		<Department>Mathematica, Statistics, and Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3nn2sljiwwl</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>351</ID>
		<Name>TG-PHY160031</Name>
		<Description>We request computing time on Stampede to perform air shower simulations for the VERITAS air Cherenkov gamma-ray telescope. The new set replaces an existing 5 year old set of shower simulations. Air shower simulations are essential to understand the instrument response of VERITAS and needed in the analysis of VERITAS data. The proposed new set of simulations will allow the VERITAS Collaboration to extend the usable energy range of the VERITAS instrument beyond 10 TeV and significantly reduce systematic uncertainties at all energies.</Description>
		<PIName>Nepomuk Otte</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>School of Physics &amp; Center for Relativistic Astrophysics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>519</ID>
		<Name>TG-PHY180007</Name>
		<Description>The Jet Energy-loss Tomography with a Statistically and Computationally Advanced Program Envelope (JETSCAPE) collaboration is an NSF funded SSI-collaboration of 6 institutions.The JETSCAPE Collaboration is tasked with the design and construction of a software framework that can be used to simulate collisions of large nuclei at extreme energies, to populate the framework with interacting modules that simulate different aspects of the collision, and use Bayesian techniques to make statistical comparisons between the results of this event generator and experimental data. Nuclear collision experiments at Brookhaven National Lab. and at CERN produce a state of matter called the Quark Gluon Plasma (QGP), which exists only above 2 trillion degrees. The QGP lives for about 10 septillionths of a second, before cooling down and explosively evaporating to a spray of conventional matter. The separate modules of the JETSCAPE event generator will simulate the initial state of the colliding nuclei, the pre-equilibrium dynamics, the viscous fluid dynamical expansion where the QGP cools down to an interacting state of conventional matter, and the final evaporation of the droplet into a spray of conventional particles. The framework and developed event generator places special emphasis on the simulation of extremely high energy jets that are produced in rarer events, traverse the dense QGP and are modified on exit. The study of this modification in comparison with jets in vacuum yields clues to the internal structure of the QGP. Before such simulations can be carried out, the different interacting modules of the event generator have to be tuned (unknown parameters set) by comparison with a small subset of available experimental data. We are requesting allocation time on the OSG to start the tuning of a scaled down version of the full event generator. The startup allocation will allow us to estimate both the time required for the tuning and simulations of the default event generator.</Description>
		<PIName>Abhijit Majumder</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Physics And Astronomy</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>550</ID>
		<Name>TG-PHY180035</Name>
		<Description>Calibrating JETSCAPE 1.0 Understanding jets in a Quark Gluon Plasma</Description>
		<PIName>Abhijit Majumder</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>751</ID>
		<Name>TG-PHY200004</Name>
		<Description>Toward massively-parallel plasma simulation for low-temperature plasmas</Description>
		<PIName>Kentaro Hara</PIName>
		<Organization>Stanford University</Organization>
		<Department>Aerospace Engineering</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1918053794</ID>
		<Name>TG-PHY210083</Name>
		<Description>Study the nonlinear elastic behavior of nanomaterials using a polynomial based constitutive equation to model the behavior of the materials.</Description>
		<PIName>Senthil S. Vel</PIName>
		<Organization>University of Maine</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jxj9y1j53ii6</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>893636859</ID>
		<Name>TG-PHY210092</Name>
		<Description>Finite-size corrections in spin glasses and combinatorial optimization</Description>
		<PIName>Stefan Boettcher</PIName>
		<Organization>Emory University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yaw5atxcrn55</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>662839851</ID>
		<Name>TG-PHY210094</Name>
		<Description>Magnetic and toopological properties of line defects in multiband superconductors. use Bogoliubov-de Gennes equations</Description>
		<PIName>Peter Hirschfeld</PIName>
		<Organization>University of Florida</Organization>
		<Department>Physics dept.</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/84k5udeuw65m</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>200044350</ID>
		<Name>TG-PHY220009</Name>
		<Description>Conduct particle resolved simulations of prolate spheroids in viscoelastic and EVP fluids using an in-house finite difference solver.</Description>
		<PIName>Donald L Koch</PIName>
		<Organization>Cornell University</Organization>
		<Department>Department of Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>14.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1914541499</ID>
		<Name>TG-PHY220016</Name>
		<Description>Benchmarking of 2D Isometric Tensor Network Algorithms. Tensor networks states (TNS) are an essential tool in condensed matter physics for simulating quantum systems on standard, classical computers. In one-dimension, Matrix Product State (MPS) methods are provably accurate at representing a large class of physical states, and efficient algorithms have been developed for finding lowest energy, excited , and time-evolved states. In higher dimensions, however, exactly calculating properties of TNS are provably NP-hard, so approximations must be made. A recent development in two-dimensions (2D) is the isometric tensor network (isoTNS), which places restrictions on the network so that calculations become efficient [1]. We have recently developed algorithms for simulations of 2D networks with a finite by infinite geometry (think of an infinitely long ribbon). It is necessary to now benchmark these methods against existing 1D algorithms applied to 2D systems and determine the system sizes at which these methods outperform their 1D counterparts. The simulation code is written in Python and typically is for a single core. [1] Zaletel, Pollmann; Isometric Tensor Network States in Two Dimensions; Phys. Rev. Lett. 124, 037201 (2020)</Description>
		<PIName>Sajant Anand</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>105</ID>
		<Name>TG-SEE140006</Name>
		<Description>Description: This proposal requests 20,000 SUs on XSEDE for 20 undergraduate students and mentors participating in the Computational Astronomy &amp; Physics REU Program at the University of North Carolina-Chapel Hill in summer 2014. The time is needed for a computational methods tutorial on the Open Science Grid followed by optional use of the OSG for the students summer research projects, with possible continuing use through January 2014 to enable polishing the projects for presentation at conferences. The projects cover a range of topics in computational astronomy and physics. Details can be found in the supporting material attached.</Description>
		<PIName>Sheila Kannappan</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Physics &amp; Astronomy</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>146</ID>
		<Name>TG-SES090019</Name>
		<Description>Geographic Information Science (GIScience), crosscutting many fields (e.g., geography, social sciences, computer science, geodesy, and information sciences), plays essential roles for transforming geographic data into geospatial information and knowledge, breaking through scientific problems, and improving decision-making practices of broad and significant societal impact. However, fulfilling such roles is increasingly dependent on the ability to handle very large spatial datasets and complex analysis and modeling methods based on synthesizing computational and spatial thinking enabled by cyberinfrastructure (CI), which conventional GIS software approaches do not provide. CI-based integration of geographic information systems (GIS) and spatial analysis and modeling, as a holistic solution, is leading to unprecedented capabilities for transforming geospatial sciences.The purpose of this project is to extend and sustain GISolve, a TeraGrid Science Gateway toolkit for GIScience, for establishing a high performance, distributed, and collaborative CyberGIS framework that couples CI, GIS, and geospatial analysis and modeling capabilities. Through the continuous TeraGrid resource allocation support from previous three years, a set of spatial middleware components has been built into the GISolve Toolkit to glue generic cyberinfrastructure capabilities and geospatial analysis methods. This toolkit has been used to build the TeraGrid GIScience Gateway as a collaborative geospatial problem-solving environment for multi-disciplinary researchers to perform large-scale geospatial analysis and modeling, and help non-technical users directly benefit from accessing TeraGrid capabilities. With the support of TeraGrid high-end computing resources, we have developed a set of high-performance parallel and distributed geospatial computational methods for our research projects. Scalability and efficient use of high-end computing resources are the foci in developing these methods. For example, the parallel agent-based modeling and parallel land use optimization code are scalable to thousands of processors on Abe and Ranger with impressive computational performance. The methods so developed have been applied in solving large- and multi-scale geospatial science problems that could not be solved before, such as the study of geospatial pattern of the impact of global climate change on crop yields. With GISolve being widely used in the GIScience community, new methods continue to be identified, proposed, and integrated in the GISolve Toolkit. To support community-contributed applications, we have developed a streamlined application integration process to facilitate cyberinfrastructure-enabled computation and efficient integration into the science gateway for sharing. This project has been growing dramatically with consistent and extended research collaboration and education efforts such as the collaboration with the U.S. Geological Survey (USGS) in the National Map project and outreach activities with the University Consortium for Geographic Information Science (UCGIS).</Description>
		<PIName>Shaowen Wang</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Geography and Geographic Information Science</Department>
		<FieldOfScience>Geographic Information Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>45.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>113</ID>
		<Name>TG-STA110011S</Name>
		<Description>renewing project</Description>
		<PIName>Stephen McNally</PIName>
		<Organization>University of Tennessee, Knoxville</Organization>
		<Department>NICS</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hp8930spi37u</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>48</ID>
		<Name>TG-STA110014S</Name>
		<Description>Staff Account for Training</Description>
		<PIName>Nancy Wilkins-Diehr</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputer Center</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1739496113</ID>
		<Name>TG-TRA090005</Name>
		<Description>Campus Champion Allocation for University of Michigan</Description>
		<PIName>Michelle Johnson</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Advanced Research Computing - Technology Services</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>45</ID>
		<Name>TG-TRA100004</Name>
		<Description>Swarthmore College Campus Champion Renewal</Description>
		<PIName>Andrew Ruether</PIName>
		<Organization>Swarthmore College</Organization>
		<Department>ITS</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/a9u068qpwh85</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>111</ID>
		<Name>TG-TRA110013</Name>
		<Description>Description: Campus Champions for Case Western Reserve University, helping faculty to start onboarding XSEDE resources. Some research work on Macromolecular Science and Materials Science.</Description>
		<PIName>Hadrian Djohari</PIName>
		<Organization>Case Western Reserve University</Organization>
		<Department>ITS</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7kqlt19a4h39</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>392</ID>
		<Name>TG-TRA120004</Name>
		<Description>This allocation will be used to help researchers at Columbia University understand how to use XSEDE resources.</Description>
		<PIName>Rob Lane</PIName>
		<Organization>Columbia University</Organization>
		<Department>Columbia University Information Techonology</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1033099510</ID>
		<Name>TG-TRA120012</Name>
		<Description>UCLA Campus champion allocation</Description>
		<PIName>Tajendra Vir Singh</PIName>
		<Organization>University of California, Los Angeles</Organization>
		<Department>OARK</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4vhk41w4vvn6</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>72</ID>
		<Name>TG-TRA120014</Name>
		<Description>This is the allocation for my Montana State University Campus Champion account.</Description>
		<PIName>Pol Llovet</PIName>
		<Organization>Montana State University</Organization>
		<Department>Research Computing Group</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0budavib8vhh</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>645</ID>
		<Name>TG-TRA120031</Name>
		<Description>Campus Champions Renewal</Description>
		<PIName>John Burkman</PIName>
		<Organization>Louisiana School for Math, Science, and the Arts</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Advanced Scientific Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/trggbvycsbve</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>73</ID>
		<Name>TG-TRA120041</Name>
		<Description>campus Champion at GWU</Description>
		<PIName>Hanning Chen</PIName>
		<Organization>George Washington University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/67icxo2r0nw7</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>646</ID>
		<Name>TG-TRA130003</Name>
		<Description>Campus Champion Renew for Tufts University</Description>
		<PIName>Shawn Doughty</PIName>
		<Organization>Tufts University</Organization>
		<Department>Research and Geospatial Technology Services</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vtcuoa0mgv9x</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>118</ID>
		<Name>TG-TRA130007</Name>
		<Description>This is a renewal request for the Campus Champion allocation for Northwest Missouri State University.</Description>
		<PIName>David Monismith</PIName>
		<Organization>Northwest Missouri State University</Organization>
		<Department>Mathematics, Computer Science, and Information Systems</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iehnhhh561io</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>160</ID>
		<Name>TG-TRA130011</Name>
		<Description>This allocation will be used to support the use of high performance computing at Indiana University of Pennsylvania. This allocation is a gateway for faculty and students at IUP to gain experience and start using XSEDE resources to further their education and research objectives.  This is the Campus Champion allocation request for IUP.</Description>
		<PIName>John Chrispell</PIName>
		<Organization>Indiana University of Pennsylvania</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ekm8sdum58z7</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>183</ID>
		<Name>TG-TRA130030</Name>
		<Description>I like to request renewal for my CC allocation. This allocation will help me to provide temporary resources for new users who wish to test XSEDE resources.</Description>
		<PIName>Neranjan Edirisinghe Pathirannehelage</PIName>
		<Organization>Georgia State University</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ybl3snr9pbs1</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>332</ID>
		<Name>TG-TRA140029</Name>
		<Description>The immediate purpose of this request is to have small allocations available for showcasing and quick access to a variety of XSEDE resources.  Long term goals are to encourage and assist campus users in applying for their own allocations.</Description>
		<PIName>Scott Hampton</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>Center for Research Computing</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>551</ID>
		<Name>TG-TRA140036</Name>
		<Description>Campus Champions Renewal</Description>
		<PIName>David Toth</PIName>
		<Organization>Centre College</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/apzl1q10g59m</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>331</ID>
		<Name>TG-TRA140043</Name>
		<Description>Campus Champion allocation</Description>
		<PIName>Igor Yakushin</PIName>
		<Organization>Pennsylvania State University</Organization>
		<Department>Institute for CyberScience</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f1tlj6c19ppg</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>552</ID>
		<Name>TG-TRA150015</Name>
		<Description>Campus Champion for Wichita State University</Description>
		<PIName>Gi Suk Hwang</PIName>
		<Organization>Wichita State University</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3nn2sljiwwl</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>303</ID>
		<Name>TG-TRA150018</Name>
		<Description>A request for initial campus champion resources for Oregon State University researchers.</Description>
		<PIName>Stephen Wolbers</PIName>
		<Organization>Oregon State University</Organization>
		<Department>Information Services</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h0s7lk6vj9dn</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>724</ID>
		<Name>TG-TRA160027</Name>
		<Description>Indiana University Staff Allocation</Description>
		<PIName>Therese Miller</PIName>
		<Organization>Indiana University</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>553</ID>
		<Name>TG-TRA170047</Name>
		<Description>Campus Champion for North Dakota State University</Description>
		<PIName>Nicholas Dusek</PIName>
		<Organization>North Dakota State University</Organization>
		<Department>Center for Computationally Assisted Science and Technology</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/der850qlvoxm</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1984311722</ID>
		<Name>TG-TRA180011</Name>
		<Description>Allocations to help UD clients understand what resources can potentially be available to them to extend and/or complement UDs local HPC resources. Our goal is to apply for startup or other types of allocations for clients without necessarily using the Campus Champion resource, and/or provide clients with access to one of the resources, like Bridges, via the workshops to get a sense of resources and then apply for their own allocation. These allocations will be offered as an option to our UD clients to experiment in anticipation of applying for their own allocations.</Description>
		<PIName>Anita Schwartz</PIName>
		<Organization>University of Delaware</Organization>
		<Department>CS&amp;S</Department>
		<FieldOfScience>Other Engineering and Technologies</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/j2iu11x3iayo</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>512</ID>
		<Name>TG-TRA180032</Name>
		<Description>Campus Champion for Wichita State University. I will use the allocation to help researchers at Wichita State University learn how to utilize HPC and HTC systems in their various research projects. My goal is to use this allocation to introduce XSEDE to students and faculty.</Description>
		<PIName>Terrance Figy</PIName>
		<Organization>Wichita State University</Organization>
		<Department>ITS</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>13</ID>
				<Name>OSG-XSEDE</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3nn2sljiwwl</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1545725009</ID>
		<Name>TG-TRA210040</Name>
		<Description>I will be using the allocation to help researchers at the University of Rochester to understand how to use XSEDE resources and to test which XSEDE resources best fit their needs.</Description>
		<PIName>Baowei Liu</PIName>
		<Organization>University of Rochester</Organization>
		<Department>Dept. of Physics &amp; Astronomy</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1838383619</ID>
		<Name>TG-TRA220011</Name>
		<Description>Campus Champions allocation for Lehigh University</Description>
		<PIName>Alexander Pacheco</PIName>
		<Organization>Lehigh University</Organization>
		<Department>Library &amp; Technology Services</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zu72yws3nzeo</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1319196150</ID>
		<Name>TG-TRA220014</Name>
		<Description>This Campus Champions allocation will primarily be used to allow USDA-ARS SCINet (https://scinet.usda.gov/) users to evaluate Jetstream as a possible alternative to public cloud (AWS, Azure) resources, which can be administratively difficult to obtain; as well as evaluate resources (e.g., newer GPU models) that are unavailable on SCINet HPC clusters.</Description>
		<PIName>Nathan Weeks</PIName>
		<Organization>USDA Agricultural Research Service</Organization>
		<Department>Corn Insects and Crop Genetics Research Unit</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/04zshkcip94w</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1006663596</ID>
		<Name>TG-TRA220017</Name>
		<Description>Campus Champions Request for the University of South Dakota</Description>
		<PIName>Bill Conn</PIName>
		<Organization>University of South Dakota</Organization>
		<Department>ITS</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/it45nx81xgfl</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>572062507</ID>
		<Name>TIFR_Balakrishnan</Name>
		<Description>Large scale Monte Carlo simulations for interpretation of experimental cosmic ray data. CORSIKA is one such cosmic ray simulation package widely used among the cosmic ray community for studying the extensive air shower development in the Earth's atmosphere under various simulation world conditions. Subsequently, the simulated cosmic ray secondaries are processed with detector simulation tools for generating measurable physical quantities that can be compared with experiment. These procedures are important for improving the current understanding of cosmic ray modulation in the interplanetary space and solar storms. These studies have potential impact in space-weather studies that can directly benefit the society.</Description>
		<PIName>Hari Balakrishnan</PIName>
		<Organization>Tata Institute of Fundamental Research</Organization>
		<Department>Tata Institute of Fundamental Research</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7cvhtkt3j3un</InstitutionID>
		<FieldOfScienceID>40.0299</FieldOfScienceID>
	</Project>
	<Project>
		<ID>611925621</ID>
		<Name>TJHSST_Yilmaz</Name>
		<Description>Thomas Jefferson High School student projects. Projects change every year, but every year we have 3-4 projects that may require extra computational power we don't have. They may require training a lot of data, which are images most of the time.</Description>
		<PIName>Selma Yilmaz</PIName>
		<Organization>Thomas Jefferson High School for Science and Technology</Organization>
		<Department>Computer Systems Lab</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>Unknown</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>763</ID>
		<Name>TNTech_ITS</Name>
		<Description>Research computing services (within Information Technology Services) and Tennessee Technology University</Description>
		<PIName>Mike Renfro</PIName>
		<Organization>Tennessee Tech University</Organization>
		<Department>Information Technology Services</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ttqvi8xg5x2g</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>315</ID>
		<Name>TPOT</Name>
		<Description>Project Description: TPOT is an open source Python tool that automatically creates and optimizes Machine Learning pipelines using genetic programming.  GitHub repo: http://github.com/rhiever/tpot</Description>
		<PIName>Jason H. Moore</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Institute for Biomedical Informatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>402</ID>
		<Name>TRNG</Name>
		<Description>Testing Random number Generators via parallel Testu01 package.</Description>
		<PIName>Asia Aljahdali</PIName>
		<Organization>Florida State University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1695579679</ID>
		<Name>TU_OTS</Name>
		<Description>Group for OTS staff at Towson University to learn about the OSPool</Description>
		<PIName>Stuart Page</PIName>
		<Organization>Towson University</Organization>
		<Department>Office of Technology Services</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jthubnuqeush</InstitutionID>
		<FieldOfScienceID>11.1099</FieldOfScienceID>
	</Project>
	<Project>
		<ID>164</ID>
		<Name>Teamcore</Name>
		<Description>Solving large scale Partially Observable Markov Decision Processes (POMDPs) in order to discover efficient health intervention mechanisms which will assist in prevention of HIV spread amongst homeless youth in Los Angeles.</Description>
		<PIName>Amulya Yadav</PIName>
		<Organization>University of Southern California</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>9</ID>
				<Name>ISI</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>192</ID>
		<Name>TechEX15</Name>
		<Description>Internet2 -TechEX15 Workshop on High Throughput Computing October 8th 2015</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>460</ID>
		<Name>TelescopeArray</Name>
		<Description>Telescope Array (TA) is the largest cosmic ray detector in the Northern hemisphere, which is located in Millard county, Utah. TA studies cosmic ray energy spectrum, mass composition, and arrival directions in the energy range from 4 PeV to 100 EeV and above. The address of the projects' website is http://www.telescopearray.org.</Description>
		<PIName>Gordon Thomson</PIName>
		<Organization>University of Utah</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iwlonrroeaal</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>61714804</ID>
		<Name>Temple_Spigler</Name>
		<Description>This work seeks to uncover the genomic signatures of urban evolution in Pieris rapae, the cabbage white butterfly. Using whole genome sequencing data, we will explore patterns of neutral and adaptive evolution, including population structure, inbreeding, genetic diversity, and positive selection.</Description>
		<PIName>Rachel Spigler</PIName>
		<Organization>Temple University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zqk49hp4xqmb</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>202609177</ID>
		<Name>TexasAMK_Yang</Name>
		<Description>Optimization of Small Modular Reactor Core Design</Description>
		<PIName>Xue Yang</PIName>
		<Organization>Texas A&amp;M University-Kingsville</Organization>
		<Department>Department of Mechanical and Industrial Engineering</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vzpbrjdrxxcp</InstitutionID>
		<FieldOfScienceID>14.2301</FieldOfScienceID>
	</Project>
	<Project>
		<ID>602</ID>
		<Name>TexasAM_Alsmadi</Name>
		<Description>Analysis of Twitter posts to determine defining characteristics of bots for identification.</Description>
		<PIName>Izzat Alsmadi</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Computer and Information Services</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>692</ID>
		<Name>TexasAM_Fang</Name>
		<Description>A General Framework for Inference on Shape Restrictions</Description>
		<PIName>Zheng Fang</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>45.0602</FieldOfScienceID>
	</Project>
	<Project>
		<ID>747</ID>
		<Name>TexasAM_Sun</Name>
		<Description>Light nuclei production in heavy-ion collisions</Description>
		<PIName>Kaijia Sun</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Cyclotron Institute</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>836</ID>
		<Name>TexasTech_Corsi</Name>
		<Description>Detection of gravitational waves from transient signals using LIGO data.</Description>
		<PIName>Alessandra Corsi</PIName>
		<Organization>Texas Tech University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dm49jc7i86zx</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>184</ID>
		<Name>TextLab</Name>
		<Description>Data analytics on available text with python programs</Description>
		<PIName>James Evans</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1236668135</ID>
		<Name>Training-ACE-NIAID</Name>
		<Description>Group for ACE training (through NIAID/NIH)</Description>
		<PIName>Mariam Quiñones</PIName>
		<Organization>NIAID/NIH</Organization>
		<Department>Bioinformatics and Computational Biosciences Branch (BCBB)</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/451cgt72wj62</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>342</ID>
		<Name>TrappedOrbits</Name>
		<Description>Computing a bunch of orbits in a disk galaxy in the presence of a spiral arm. The aim is to identify trapped orbits and determine the physical parameters that determine the rate of scattering out of trapped orbits.</Description>
		<PIName>Kathryne J Daniel</PIName>
		<Organization>Bryn Mawr College</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wrdwsan7bxsn</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>693</ID>
		<Name>Tufts_Hempstead</Name>
		<Description>Tufts Computer Architecture Lab</Description>
		<PIName>Mark Hempstead</PIName>
		<Organization>Tufts University</Organization>
		<Department>Electrical &amp; Computer Engineering</Department>
		<FieldOfScience>Computer Architecture/Computer Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vtcuoa0mgv9x</InstitutionID>
		<FieldOfScienceID>14.4701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>810</ID>
		<Name>Tufts_Levin</Name>
		<Description>The project uses a biophysical simulation engine (BETSE) to explore the parameter space of the bioelectrical dynamics of a cluster of somatic cells.</Description>
		<PIName>Michael Levin</PIName>
		<Organization>Tufts University</Organization>
		<Department>Department of Biology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vtcuoa0mgv9x</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>710</ID>
		<Name>Tutorial-PEARC20</Name>
		<Description>PEARC20 tutorial</Description>
		<PIName>Mats Rynge</PIName>
		<Organization>Open Science Grid</Organization>
		<Department>OSGConnect</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>811</ID>
		<Name>Tutorial-PEARC21</Name>
		<Description>PEARC21 tutorial</Description>
		<PIName>Christina Koch</PIName>
		<Organization>Open Science Grid</Organization>
		<Department>OSGConnect</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>445</ID>
		<Name>U5Mortality</Name>
		<Description>Analyze U-5 mortality convergence and compression in developed and developing countries.
Analyze lifespan inequality in U-5 mortality and how it correlates with other sources of inequality across and within countries.</Description>
		<PIName>Shripad Tuljapurkar</PIName>
		<Organization>Stanford University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>966754372</ID>
		<Name>UAB_ResearchComputing</Name>
		<Description>Research Computing in IT at the University of Alabama - BirminghamResearch Computing in IT at the University of Alabama - Birmingham.</Description>
		<PIName>Ralph Zottola</PIName>
		<Organization>The University of Alabama at Birmingham</Organization>
		<Department>Research Computing</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7hv1hsn6xv15</InstitutionID>
		<FieldOfScienceID>11.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2071458430</ID>
		<Name>UAB_Thyme</Name>
		<Description>Uncovering mechanisms of intellectual disability using zebrafish as a model.</Description>
		<PIName>Summer Thyme</PIName>
		<Organization>The University of Alabama at Birmingham</Organization>
		<Department>Neurobiology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7hv1hsn6xv15</InstitutionID>
		<FieldOfScienceID>26.1599b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1671913415</ID>
		<Name>UAB_Worthey</Name>
		<Description>Application of data science, omics, computational biology to understan phenotypic differentiator in human disease.</Description>
		<PIName>Elizabeth Worthey</PIName>
		<Organization>The University of Alabama at Birmingham</Organization>
		<Department>Department of Pediatrics and Pathology; CGDS</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7hv1hsn6xv15</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>377</ID>
		<Name>UADataAnalytics</Name>
		<Description>Enabling scalable data analytics for University of Arizona researchers</Description>
		<PIName>Nirav Merchant</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Arizona Research Laboratories</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>300662056</ID>
		<Name>UAF_2024_Aschwanden</Name>
		<Description></Description>
		<PIName>Andy Aschwanden</PIName>
		<Organization>University of Alaska Fairbanks</Organization>
		<Department>Geophysical Institute</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/85bj3tcfwa1z</InstitutionID>
		<FieldOfScienceID>40.0699b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>931875864</ID>
		<Name>UAF_Aschwanden</Name>
		<Description>Generate a physically-consistent state-estimate—a reanalysis—of the Greenland Ice Sheet (GrIS) from 1980 to 2020</Description>
		<PIName>Andy Aschwanden</PIName>
		<Organization>University of Alaska Fairbanks</Organization>
		<Department>Snow, Ice and Permafrost</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/85bj3tcfwa1z</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1022001823</ID>
		<Name>UAF_PISMCloud</Name>
		<Description>The Parallel Ice Sheet Model (PISM) is an open-source modelling framework for ice sheets and glaciers. It is parallel, thermodynamically-coupled and capable of high resolution. PISM is used in climate science to simulate the past and future of glaciers and ice sheets, including the Earth’s two large ice sheets in Greenland and Antarctica. See pism.io for more.</Description>
		<PIName>Joseph Kennedy</PIName>
		<Organization>University of Alaska Fairbanks</Organization>
		<Department>Geophysical Institute</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/85bj3tcfwa1z</InstitutionID>
		<FieldOfScienceID>40.0699b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1358937641</ID>
		<Name>UALR_Basu</Name>
		<Description>Investigating the transformative potential of persistent virtual reality spaces (PVRS) for education, training, and skill acquisition, such as developing advanced VR platforms for medical pre-surgical planning through conformal mapping techniques, exploring the use of transformers in spatial decision-making tasks, and creating immersive visualization tools to support agricultural decision-making using remote sensing data.</Description>
		<PIName>Aryabrata Basu</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department>Department of Computer Science and Emerging Analytics Center</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1471243129</ID>
		<Name>UALR_Begum</Name>
		<Description>The focus of my research is to study the structural and electronic properties of the perovskite material BaHfS\u2083 using Density Functional Theory (DFT).</Description>
		<PIName>Mahbuba Begum</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department> Department of Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>495965557</ID>
		<Name>UALR_EAC</Name>
		<Description>The Donaghey Emerging Analytics Center (EAC, [http://eac.ualr.edu]) is an academic department within UA Little Rock with a focus on research and development in immersive visualization, augmented/virtual/mixed realities, and interactive technologies in general. The EAC is further including in its portfolio research in cybersecurity, mobile/ubiquitous computing, and the internet-of-things, as well as applications of machine and deep learning. Additionally, the EAC is collaborating very closely with the Department of Computer Science at UA Little Rock, where the computer science department is the prime talent pool for the EAC while the EAC offers wide-ranging opportunities for students in professional software development as well as academic and industry research.</Description>
		<PIName>Jan Springer</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department>Donaghey Emerging Analytics Center</Department>
		<FieldOfScience>Computer and Information Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>11.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1892807723</ID>
		<Name>UALR_Goodarzi</Name>
		<Description>focus on drug discovery for infection and cancer, leveraging computational methods.  Specifically, I utilize computation for analyzing protein-protein interactions, protein-ligand interactions, and multivariate analysis. This approach aids in identifying potential drug targets and understanding molecular mechanisms.  Overall, my work integrates computational tools to advance drug discovery efforts against infection and cancer.
</Description>
		<PIName>Mohammad Goodarzi</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>26.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1255246248</ID>
		<Name>UALR_ITS</Name>
		<Description>Accounts for ITS staff members at the University of Arkansas, Little Rock</Description>
		<PIName>Timothy Stoddard</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department>IT Services</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1758954186</ID>
		<Name>UALR_Rodriguez-Conde</Name>
		<Description>Social media platforms have changed how information is shared and how communities interact. Among these platforms, Reddit stands out as a major hub for discussions, helping to form and grow niche communities. This project aims to explore the evolution of the computer vision community on Reddit by using advanced methods to understand how people engage, share knowledge, and collectively develop an understanding of computer vision over time.</Description>
		<PIName>Ivan Rodriguez-Conde</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department>Emerging Analytics Center</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>534562129</ID>
		<Name>UALR_Wang</Name>
		<Description>This research focuses on understanding the structure and function of plant transfer cells, specialized cells that enhance nutrient transport through wall ingrowths and increased membrane surface area. The study investigates how these cells contribute to efficient nutrient uptake, particularly under stress or developmental conditions.</Description>
		<PIName>Hong Li Wang</PIName>
		<Organization>University of Arkansas at Little Rock</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Agronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/39lbghshs28k</InstitutionID>
		<FieldOfScienceID>01.0304</FieldOfScienceID>
	</Project>
	<Project>
		<ID>392197722</ID>
		<Name>UA_Kocot</Name>
		<Description>Biodiversity and evolution of marine invertebrates</Description>
		<PIName>Kevin Kocot</PIName>
		<Organization>University of Alabama</Organization>
		<Department>Department of Biological Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h3mnbxmdwx24</InstitutionID>
		<FieldOfScienceID>26.0702c</FieldOfScienceID>
	</Project>
	<Project>
		<ID>805844088</ID>
		<Name>UA_OIT</Name>
		<Description>Our goal is to educate researchers on how to use OSG to perform their research. We have researchers working on medical technology, biology, chemistry, data science, machine learning, and artificial intelligence.</Description>
		<PIName>Donald Jay Cervino</PIName>
		<Organization>University of Alabama</Organization>
		<Department>Office of Information Technology</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h3mnbxmdwx24</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1963393930</ID>
		<Name>UC-Staff</Name>
		<Description>UC staff - testing and monitoring</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>593</ID>
		<Name>UCAnschutz_Langner</Name>
		<Description>Understanding efficiency losses due to data coarsening</Description>
		<PIName>Elizabeth Juarez-Colunga</PIName>
		<Organization>University of Colorado Anschutz Medical Campus</Organization>
		<Department>Biostatistics and Medical Informatics</Department>
		<FieldOfScience>Biostatistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ca3jfb3f8sv3</InstitutionID>
		<FieldOfScienceID>26.1102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>784</ID>
		<Name>UCBerkeley_Altman</Name>
		<Description>Investigating the electronic properties of materials at low temperatures</Description>
		<PIName>Ehud Altman</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1560488732</ID>
		<Name>UCBerkeley_Chen</Name>
		<Description>Machine learning research with potential applications to the healthcare domain.
Lab website: chenlab.io</Description>
		<PIName>Irene Chen</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Computational Precision Health</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>733156299</ID>
		<Name>UCBerkeley_Efros</Name>
		<Description>CS180 class projects</Description>
		<PIName>Alexie Efros</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>EECS</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1121656630</ID>
		<Name>UCBerkeley_Garratt</Name>
		<Description>Dynamics, measurement, and simulation of many-body quantum systems https://sites.google.com/view/sjgarratt/home</Description>
		<PIName>Samuel Garratt</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1599235648</ID>
		<Name>UCBerkeley_Laliwala</Name>
		<Description>I am parsing India's publicly available voter rolls into analyzable formats to enable research on migration and voter behaviour, among other things. My work will create a large-scale dataset that will benefit other researchers and policymakers.</Description>
		<PIName>Sharik Laliwala</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Political Science</Department>
		<FieldOfScience>Advanced Scientific Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>45.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1191276236</ID>
		<Name>UCBerkeley_Zaletel</Name>
		<Description>Tensor networks provide an efficient approximation to quantum many-body wavefunctions and a controllable method to simulate quantum computing on classical hardware. We apply these techniques to problems in condensed matter physics and quantum error correction.</Description>
		<PIName>Mike Zaletel</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1999163399</ID>
		<Name>UCDavis_Leveau</Name>
		<Description>Study of plant-microbe interactions specifically pertaining to microbes in the phyllosphere (leaf surface)</Description>
		<PIName>Johan Leveau</PIName>
		<Organization>University of California, Davis</Organization>
		<Department>Department of Plant Pathology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f62wuiqfjmxm</InstitutionID>
		<FieldOfScienceID>1.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>704</ID>
		<Name>UCDavis_Pickett</Name>
		<Description>Computational survey and analysis of superconducting hydrides at high pressure</Description>
		<PIName>Warren E. Pickett</PIName>
		<Organization>University of California, Davis</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f62wuiqfjmxm</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>862327868</ID>
		<Name>UCDavis_Yarov-Yarovoy</Name>
		<Description>https://health.ucdavis.edu/physiology/faculty/yarovoy.html</Description>
		<PIName>Vladimir Yarov-Yarovoy</PIName>
		<Organization>University of California, Davis</Organization>
		<Department>Physiology and Membrane Biology</Department>
		<FieldOfScience>Computational Biology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f62wuiqfjmxm</InstitutionID>
		<FieldOfScienceID>26.1104</FieldOfScienceID>
	</Project>
	<Project>
		<ID>664</ID>
		<Name>UCDenver_Butler</Name>
		<Description>Data-Consistent Approaches for Uncertainty Quantification</Description>
		<PIName>Troy Butler</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>Mathematical and Statistical Sciences</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>661</ID>
		<Name>UCDenver_Farguell</Name>
		<Description>Wildland Fire Modeling</Description>
		<PIName>Angel Farguell</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>Mathematical and Statistical Sciences</Department>
		<FieldOfScience>Atmospheric Science and Meteorology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>40.04</FieldOfScienceID>
	</Project>
	<Project>
		<ID>886033397</ID>
		<Name>UCDenver_Gaffney</Name>
		<Description>Musculoskeletal Biomechanics of Amputees</Description>
		<PIName>Brecca Gaffney</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>CEDC-Mechanical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1045555319</ID>
		<Name>UCDenver_Hartke</Name>
		<Description>Using discharging method to prove upper bounds on coloring parameters for sparse graph classes</Description>
		<PIName>Stephen Hartke</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>Mathematical and Statistical Sciences</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>801</ID>
		<Name>UCDenver_Kechris</Name>
		<Description>Addressing sparsity in metabolomics data analysis</Description>
		<PIName>Katerina Kechris</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>Biostatistics and Informatics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>616</ID>
		<Name>UCDenver_Mandel</Name>
		<Description>regression testing on OSG</Description>
		<PIName>Jan Mandel</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>Mathematical and Statistical Sciences</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>234698689</ID>
		<Name>UCDenver_Roberts</Name>
		<Description>Cryogenic Dark Matter Search (CDMS) data to constrain basic properties of the response of germanium and silicon to deposited energy.</Description>
		<PIName>Amy Roberts</PIName>
		<Organization>University of Colorado Denver</Organization>
		<Department>Physics Department/SuperCDMS Collaboration</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m27szfeh7gut</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1192096055</ID>
		<Name>UCF_Azar</Name>
		<Description>Use of LLM in Hardware Security and Verification</Description>
		<PIName>Kimia Zamiri Azar</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>11.1003</FieldOfScienceID>
	</Project>
	<Project>
		<ID>596</ID>
		<Name>UCF_Bennett</Name>
		<Description>DFT Calculations</Description>
		<PIName>Christopher Bennett</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Physics/Planetary Science</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2140638897</ID>
		<Name>UCF_Borges</Name>
		<Description>Solve inverse mathematics problems</Description>
		<PIName>Carlos Borges</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Math</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>27.0303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>622</ID>
		<Name>UCF_GRIT</Name>
		<Description>UCF's Graduate and Research Information Technology (GRIT) provides innovative and effective digital services that are strategically aligned to the goals of research and graduate programs.</Description>
		<PIName>Ozlem Garibay</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Office of Research and Graduate Studies</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>529</ID>
		<Name>UCF_IT</Name>
		<Description>Project for UCF IT staff for exploring and using OSG Connect</Description>
		<PIName>Tim Larson</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Information Technolgoy</Department>
		<FieldOfScience>Technology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>678950052</ID>
		<Name>UCF_Kara</Name>
		<Description>We are investigating the utility of sophisticated computational methods for material design and discovery — this includes but is not limited to density functional theory, genetic algorithms, and machine learning. Our applications include catalysis, energy storage, and device design. At the moment, we are focusing on high entropy materials, and analyzing the extent to which these methods can help us screen the vast possibilities available to such systems.</Description>
		<PIName>Abdelkader Kara</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1080743158</ID>
		<Name>UCF_Karalidi</Name>
		<Description>We will be using the OSPool to assist with the creation of radiative transfer models of heterogeneous terrestrial exoplanets that incorporate diurnal rotation and seasonal variability. Spectra will be generated over the visible to near-infrared wavelengths and cover all major planetary phase angles.</Description>
		<PIName>Theodora Karalidi</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Planetary Sciences Group, Department of Physics</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>40.0203</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1411921077</ID>
		<Name>UCF_Khan</Name>
		<Description>Investigating the ability of neural networks to represent functions in the context of approximation theory. We seek to uncover areas of scientific computing in which neural networks provide a 'better-than-nothing'  approximation of a solution in high-dimensional problems wherein classical scientific computing methods fail.  The primary area of investigation is the ability of a neural network to capture inherent low-dimensional  structure present in high-dimensional functions.
</Description>
		<PIName>Fahad Khan</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Research Cyberinfrastructure</Department>
		<FieldOfScience>Mathematics and Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>617</ID>
		<Name>UCF_Wiegand</Name>
		<Description>Predictions on Traffic with Deep Learning and Reinforcement Learning</Description>
		<PIName>Paul Wiegand</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Intitute for Simulation and Training</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1094537355</ID>
		<Name>UCF_Yao</Name>
		<Description>Exploring the behavior and robustness of deep learning and large language models under various experimental conditions, with a focus on evaluating fine-tuning performance across different configurations and hardware environments.</Description>
		<PIName>Fan Yao</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>994808025</ID>
		<Name>UCF_Yuksel</Name>
		<Description>This project explores methods and architectures that use machine learning to predict and install network flows before they arrive at a software-defined networking (SDN) domain. In Reactive SDN, a new flow causes interaction between the SDN controller and the SDN switch. The goal of the project is to reduce the delay caused by these controller-switch interactions to process new flows.</Description>
		<PIName>Murat Yuksel</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>14.4701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1968105797</ID>
		<Name>UCF_Zou</Name>
		<Description>Using computational tools to investigate properties of materials.</Description>
		<PIName>Shengli Zou</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Department of Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>842</ID>
		<Name>UCHC_Mendes</Name>
		<Description>We follow the Systems Biology approach, where biological phenomena are seen as resulting from the interactions of its constituents. Interpreting these phenomena requires the use of quantitative methods and computation. We work on many aspects of Computational Systems Biology: Development of modelling and simulation software (like COPASI) Construction of large-scale cellular models (digital organisms) Parameter estimation and sensitivity analysis Standards for systems biology Multiscale modelling and simulation Reverse-engineering biological networks (top-down modelling) Enzyme kinetics for model construction (bottom-up modelling) We are also involved in modeling biological phenomena: The network of iron absorption, metabolism and signalling in mammals Dynamics of eukaryotic protein synthesis Mixed species Candida albicans-bacterial biofilm formation </Description>
		<PIName>Pedro Mendes</PIName>
		<Organization>University of Connecticut Health Center</Organization>
		<Department>Department of Cell Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/z1cema4pdiep</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>537</ID>
		<Name>UCIAtlas</Name>
		<Description>University of California, Irvine Atlas Group</Description>
		<PIName>Anyes Taffard</PIName>
		<Organization>University of California, Irvine</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>35</ID>
				<Name>ATLAS</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ss614ab1u5qd</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>577</ID>
		<Name>UCI_Jeliazkov</Name>
		<Description></Description>
		<PIName>Ivan Jeliazkov</PIName>
		<Organization>University of California, Irvine</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ss614ab1u5qd</InstitutionID>
		<FieldOfScienceID>45.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>591</ID>
		<Name>UCI_McnLab</Name>
		<Description>Looking at widefield calcium imaging data from different brain regions</Description>
		<PIName>Bruce McNaughton</PIName>
		<Organization>University of California, Irvine</Organization>
		<Department>Neurobiology and Behavior</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ss614ab1u5qd</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2051187213</ID>
		<Name>UCI_Sheng</Name>
		<Description>Research on the US housing market and transactions with the aim of comprehending how housing prices move and are correlated with each other. </Description>
		<PIName>Jinfei Sheng</PIName>
		<Organization>University of California, Irvine</Organization>
		<Department>Paul Merage School of Business</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ss614ab1u5qd</InstitutionID>
		<FieldOfScienceID>19</FieldOfScienceID>
	</Project>
	<Project>
		<ID>731</ID>
		<Name>UCLA_Huang</Name>
		<Description>Studying $\Omega$-hadron correlation to search for signatures of baryon junction mechanisms at RHIC BES energies.</Description>
		<PIName>Huan Zhong Huang</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1179045082</ID>
		<Name>UCLA_OARC</Name>
		<Description>Office of advanced computing center staff at UCLA</Description>
		<PIName>Tajendra Vir Singh</PIName>
		<Organization>University of California, Los Angeles</Organization>
		<Department>OARK</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4vhk41w4vvn6</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>628</ID>
		<Name>UCLA_Zhu</Name>
		<Description>Vision, Cognition, Learning and Autonomy</Description>
		<PIName>Song-Chun Zhu</PIName>
		<Organization>University of California, Los Angeles</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4vhk41w4vvn6</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>904603152</ID>
		<Name>UCMerced_CENVAL-ARC_2025</Name>
		<Description>Project for 2025 CENVAL-ARC Symposium participants</Description>
		<PIName>Sarvani Chadapalaka</PIName>
		<Organization>University of California, Merced</Organization>
		<Department>Cyberinfrastructure and Research Computing</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x5v4n3xgq7lu</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>477226903</ID>
		<Name>UCMerced_CIRT</Name>
		<Description>We will train students in accessing and using HPC resources for their research. https://cenval-arc.ucmerced.edu/</Description>
		<PIName>Emily Jane McTavish</PIName>
		<Organization>University of California, Merced</Organization>
		<Department>Life and Environmental Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x5v4n3xgq7lu</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>492894361</ID>
		<Name>UCMerced_Nierenberg</Name>
		<Description>Dark matter measurements with strong gravitational lensing. https://annanierenberg.com/</Description>
		<PIName>Anna Nierenberg</PIName>
		<Organization>University of California, Merced</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x5v4n3xgq7lu</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>111632526</ID>
		<Name>UCMerced_Pandey</Name>
		<Description>Interested in building scalable pipelines for computational modeling of engineered biological systems. This includes development of dynamical system models such as ODEs and PDEs, chemical reaction graphs models, and parameter identification using Bayesian inference methods.</Description>
		<PIName>Ayush Pandey</PIName>
		<Organization>University of California, Merced</Organization>
		<Department>Electrical Engineering</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x5v4n3xgq7lu</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>597</ID>
		<Name>UCMerced_Shi</Name>
		<Description>Molecular modeling of complex condensed-phase systems</Description>
		<PIName>Liang Shi</PIName>
		<Organization>University of California, Merced</Organization>
		<Department>Chemistry and Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x5v4n3xgq7lu</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>713</ID>
		<Name>UCR_ITSStaff</Name>
		<Description>Research Computing Staff in Information Technology Solutions (ITS) at University of California, Riverside.</Description>
		<PIName>Chuck Forsyth</PIName>
		<Organization>University of California, Riverside</Organization>
		<Department>Information Technology Solutions</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zy99b9jjoqpb</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>13564829</ID>
		<Name>UCSB_Bao</Name>
		<Description>I am a theorist working on the intersection of condensed matter physics and quantum information science. My recent focus is many-body quantum dynamics, quantum error correction, and topological phases. My research uses both analytical methods and numerical tools such as tensor networks, Monte Carlo simulation, and Clifford simulation. Here is a link to my Google scholar profile.</Description>
		<PIName>Yimu Bao</PIName>
		<Organization>University of California, Santa Barbara</Organization>
		<Department>Kavil Institute of Theoretical Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rglo22hiw2ge</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>798548850</ID>
		<Name>UCSB_Jablonski</Name>
		<Description>Training researchers on HTCondor and the OSPool.</Description>
		<PIName>Jon Jablonski</PIName>
		<Organization>University of California, Santa Barbara</Organization>
		<Department>Library</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rglo22hiw2ge</InstitutionID>
		<FieldOfScienceID>25.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1470550339</ID>
		<Name>UCSB_Xu</Name>
		<Description>Running large scale Monte Carlo algorithm in order to study the informational aspects of open quantum system, including those involving dissipation and measurement. https://sites.google.com/view/xucenkewebsite/home</Description>
		<PIName>Cenke Xu</PIName>
		<Organization>University of California, Santa Barbara</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Condensed Matter Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rglo22hiw2ge</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1283205928</ID>
		<Name>UCSC_Reguero</Name>
		<Description>The COSMOS-ADAPTS project aims to include adaptation strategies in Coastal California when modeling benefit cost-analysis for interventions in the coast.</Description>
		<PIName>Borja Reguero</PIName>
		<Organization>University of California, Santa Cruz</Organization>
		<Department>Center for Coastal Climate Resilience</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n6cai04882ca</InstitutionID>
		<FieldOfScienceID>14.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>483473540</ID>
		<Name>UCSC_Williams</Name>
		<Description>Simulations of performances of the Cherenkov Telescope Array (CTA). It is specially focused on studying and optimizing the performances of the CTA-US Schwarzschild-Couder Telescope (SCT) for its implementation in the Southern array of CTA. Useful links: CTA (https://www.cta-observatory.org/), Current SCT prototype installed at the Fred Whipple Lawrence Observatory https://cta-psct.physics.ucla.edu/index.html</Description>
		<PIName>David Williams</PIName>
		<Organization>University of California Santa Cruz</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n6cai04882ca</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>81</ID>
		<Name>UCSDEngEarthquake</Name>
		<Description>Earthquake Engineering from UCSD supported users</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>4</ID>
				<Name>UCSD</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>80</ID>
		<Name>UCSDPhysAstroExp</Name>
		<Description>Experimental Astrophysics from UCSD supported users</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>4</ID>
				<Name>UCSD</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>79</ID>
		<Name>UCSDPhysAstroTheo</Name>
		<Description>Theoretical Astrophysics from UCSD supported users</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>4</ID>
				<Name>UCSD</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>83</ID>
		<Name>UCSDPhysBio</Name>
		<Description>Biological Physics from UCSD supported users</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>4</ID>
				<Name>UCSD</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>82</ID>
		<Name>UCSDPhysPart</Name>
		<Description>Non-CMS Particle Physics from UCSD supported users</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>4</ID>
				<Name>UCSD</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>857779808</ID>
		<Name>UCSD_2024_Kandes</Name>
		<Description></Description>
		<PIName>Mahidhar Tatineni</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department></Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>150876920</ID>
		<Name>UCSD_Altintas</Name>
		<Description>Sage AI@Edge provides an image search service that requires a high throughput computing backend to process millions to trillions of images through an AI-driven workflow. The compute backend requires GPUs and a low latency processes that scales for the number of images produce and hosted by Sage. More information at https://sagecontinuum.org/</Description>
		<PIName>Ilkay Altintas</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>SDSC</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>956134117</ID>
		<Name>UCSD_Andrijauskas</Name>
		<Description>Research students working with Fabio. Projects include: information visualization for the OSDF transfer logs, solar image processing using the OSDF and OSPool.</Description>
		<PIName>Fabio Andrijauskas</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>732</ID>
		<Name>UCSD_Arovas</Name>
		<Description>Entanglement in boundary driven systems</Description>
		<PIName>Daniel Arovas</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>36187940</ID>
		<Name>UCSD_Bradic</Name>
		<Description>Causal Inference and Machine Learning.  Specifically, we are interested in finding optimal individualized treatment rules and provide theoretical guarantees.
</Description>
		<PIName>Jelena Bradic</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Department of Mathematical Sciences &amp; Halicioglu Data Science Institute</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1252207184</ID>
		<Name>UCSD_Du</Name>
		<Description>Our research group focuses on developing quantum sensing and imaging techniques to study various properties (spin, charge, and heat, etc) of quantum materials in the nanometer scale. In addition, we design and engineer hybrid quantum devices to achieve efficient qubit control for quantum information applications. Our research tools are versatile, including optical measurement based on nitrogen vacancy center in diamond, transport and microwave spectroscopy as well as scanning probe magnetometry.</Description>
		<PIName>Chunhui Du</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>100142798</ID>
		<Name>UCSD_Duarte</Name>
		<Description>Machine learning (ML) development for particle physics, primarily for the CMS experiment at the CERN Large Hadron Collider.</Description>
		<PIName>Javier Duarte</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>699</ID>
		<Name>UCSD_Elman</Name>
		<Description>Identifying genetic and biological subtypes of Alzheimer’s disease</Description>
		<PIName>Jeremy Elman</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Psychiatry</Department>
		<FieldOfScience>Biology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1617146578</ID>
		<Name>UCSD_Fricker</Name>
		<Description>Use satellite remote sensing data to study processes that affect mass loss from the Antarctic Ice Sheet</Description>
		<PIName>Helen Fricker</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Scripps Institution of Oceanography</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>838207560</ID>
		<Name>UCSD_George</Name>
		<Description>We develop rodent models of addiction, test addiction-like behaviors, neuroadaptations, and novel treatment approaches Applying machine learning and causal inference methods to the analysis of biomedical data.
</Description>
		<PIName>Olivier George</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Psychiatry</Department>
		<FieldOfScience>Health Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>30.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1767081475</ID>
		<Name>UCSD_Gilson</Name>
		<Description>We use theoretical, computational, informatic, and experimental approaches to evaluate and advance the methods of computer-aided drug design. We also work on drug discovery projects and study molecular motors and other nonequilibrium systems.</Description>
		<PIName>Michael Gilson</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Skaggs School of Pharmacy &amp; Pharmaceutical Sciences</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>795744068</ID>
		<Name>UCSD_Goetz</Name>
		<Description>Emerging machine learning (ML) models enable the design of atomistic interaction potentials for molecular simulations that are both accurate and computationally efficient. Training of these ML models requires a large number of reference data in form of energies and nuclear forces of relevant molecular conformations and intermolecular interactions. This project will compute accurate quantum mechanical reference energies and forces using density functional theory and coupled cluster theory of relevance for chemical and biomolecular simulations.</Description>
		<PIName>Andreas Goetz</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>612</ID>
		<Name>UCSD_Grover</Name>
		<Description>Use Monte Carlo simulation to study Newmann Moore model</Description>
		<PIName>Tarun Grover</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>363689105</ID>
		<Name>UCSD_Guiang</Name>
		<Description>Improve performance of data downsampling tools for future LHC runs</Description>
		<PIName>Jonathan Guiang</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>752</ID>
		<Name>UCSD_Hsiao</Name>
		<Description>Develop AI algorithm to diagnose CT scans of pneumonia patients: https://www.kpbs.org/news/2020/apr/07/ucsd-using-ai-identify-pneumonia-coronavirus/</Description>
		<PIName>Albert Hsiao</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Radiology</Department>
		<FieldOfScience>Radiological Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>700</ID>
		<Name>UCSD_Kandes</Name>
		<Description>Brute-Force Search for Nonlinear Enhancements to the Sagnac Effect in Matter Waves</Description>
		<PIName>Martin Charles Kandes</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1108240486</ID>
		<Name>UCSD_Knight</Name>
		<Description>The project focuses on constructing a microbial reference genome database. Specifically, OSG resources will be leveraged to conduct annotations of ~1.6 million genomes.</Description>
		<PIName>Rob Knight</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Pediatrics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>769</ID>
		<Name>UCSD_Libgober</Name>
		<Description>Scraping Names off of FCC Exparte Meeting Logs</Description>
		<PIName>Brian Libgober</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>School of Global Policy and Strategy</Department>
		<FieldOfScience>Social Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>45.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>630561480</ID>
		<Name>UCSD_McGreevy</Name>
		<Description>We are studying chiral states on a lattice system</Description>
		<PIName>John McGreevy</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1319306625</ID>
		<Name>UCSD_Pa</Name>
		<Description>Big data approaches to investigating modifiable risk factors and lifestyle-based interventions in Alzheimer's disease</Description>
		<PIName>Judy Pa</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>School of Medicine, Alzheimer’s Disease Cooperative Study (ADCS)</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1732585414</ID>
		<Name>UCSD_Politis</Name>
		<Description>Bootstrap hypothesis testing methods for time series -  we are trying to compute the rejection probabilities of our hypothesis  testing method as a measure of their efficacy. This requires generating  several samples of time series for a given sample size and hyperparameter  specification and running our test repeatedly to compute the empirical  rejection probability. This is done over several sample sizes and hyperparameter specs.
</Description>
		<PIName>Dimitris N Politis</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Department of Mathematics</Department>
		<FieldOfScience>Mathematics and Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>614480514</ID>
		<Name>UCSD_Rao</Name>
		<Description>Machine learning algorithms for signal processing and communications,  particularly mmWave and medical imaging.
</Description>
		<PIName>Bhaskar Rao</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Electrical and Computer Engineering</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>30.7099b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>636</ID>
		<Name>UCSD_Rappel</Name>
		<Description>Biophysics simulations</Description>
		<PIName>Wouter-Jan Rappel</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>632</ID>
		<Name>UCSD_ResearchIT</Name>
		<Description>General group for OSG testing and prototyping</Description>
		<PIName>Alan Moxley</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2049357899</ID>
		<Name>UCSD_Sfiligoi</Name>
		<Description>The mission of the Global Infrastructure Lab (GIL) is to tests and evaluate infrastructure software. This project is used to exercise the OSPool services.</Description>
		<PIName>Igor Sfiligoi</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>568705068</ID>
		<Name>UCSD_Shah</Name>
		<Description>The Shah lab develops biomaterials to direct immune activity and function.</Description>
		<PIName>Nisarg Shah</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Nanoengineering Department</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>470958176</ID>
		<Name>UCSD_WatsonParris</Name>
		<Description>I lead the Climate Analytics Lab (CAL) where we focus on understanding the interactions between aerosols and clouds, and their representation within global climate models: https://climate-analytics-lab.github.io CAL is leading the development of a variety of machine learning tools and techniques to alleviate these difficulties and optimally combine a variety of observational datasets, including global satellite and aircraft measurements, to constrain and improve these models. </Description>
		<PIName>Duncan Watson-Parris</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Scripps</Department>
		<FieldOfScience>Atmospheric Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0401</FieldOfScienceID>
	</Project>
	<Project>
		<ID>791</ID>
		<Name>UCSD_Wuerthwein_CMSUAF</Name>
		<Description>Work submitted as part of the CMS analysis group at the physics department at UCSD</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>4</ID>
				<Name>UCSD</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2002587411</ID>
		<Name>UCSD_Xu</Name>
		<Description>Applying machine learning and causal inference methods to the analysis of biomedical data.</Description>
		<PIName>Ronghui (Lily) Xu</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>27.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>579</ID>
		<Name>UCSD_YZYou</Name>
		<Description>Numerical verification of the entanglement feature (EF) approach to modeling the second Renyi entropy growth of a random circuit. We will compare the exact calculation to the calculation using the EF Hamiltonian, derived separately using analytical techniques.</Description>
		<PIName>Yi-Zhuang You</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>736</ID>
		<Name>UCSF_Manglik</Name>
		<Description>G protein coupled receptor (GPCR) modeling</Description>
		<PIName>Aashish Manglik</PIName>
		<Organization>University of California, San Francisco</Organization>
		<Department>Pharmaceutical Chemistry</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7nlvlasx7q46</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>27</ID>
		<Name>UChicago-RCC</Name>
		<Description>University of Chicago Research Computing Center (http://rcc.uchicago.edu) supporting the computational requirements of multiple science domains.</Description>
		<PIName>Birali Runesha</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Research Computing Center</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>662</ID>
		<Name>UChicago_Barton</Name>
		<Description>Exploring Data Caching and Federation on the OSG</Description>
		<PIName>Thomas Barton</PIName>
		<Organization>The University of Chicago</Organization>
		<Department>Information Technology Services</Department>
		<FieldOfScience>Infrastructure Development</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>326777418</ID>
		<Name>UChicago_Dhanke</Name>
		<Description>My research focuses on the application of Bayesian Neural Networks (BNNs) for uncertainty estimation in medical image classification, particularly in analyzing Chest X-ray datasets. By integrating advanced deep learning techniques with Bayesian inference methods, I aim to enhance the reliability of AI-assisted diagnostics in healthcare.</Description>
		<PIName>Sarthak Sunil Dhanke</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physical Sciences Division</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>786</ID>
		<Name>UChicago_Jonas</Name>
		<Description>Developing machine learning techniques for chemical spectroscopy</Description>
		<PIName>Eric Jonas</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>765259767</ID>
		<Name>UConn_Alpay</Name>
		<Description>Our team of scientists uses computational and theoretical methodologies to understand and address fundamental problems in materials science and engineering. Collectively, we have a broad spectrum of research interests  with myriad applications. We use our understanding to design advanced materials that impact the way we live,  including functional materials, smart materials, aerospace, nanostructured materials and materials for energy efficiency. https://alpay.ims.uconn.edu/
</Description>
		<PIName>Pamir Alpay</PIName>
		<Organization>University of Connecticut</Organization>
		<Department>Materials Science and Engineering</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eq81k8qpbcq9</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1306011315</ID>
		<Name>UConn_Chen</Name>
		<Description>Bayesian methods for leveraging historical data in clinical trials and Bayesian adaptive designs.</Description>
		<PIName>Ming-Hui Chen</PIName>
		<Organization>University of Connecticut</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eq81k8qpbcq9</InstitutionID>
		<FieldOfScienceID>27.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1411631898</ID>
		<Name>UConn_Le</Name>
		<Description>Methods for ultrafast molecular structure imaging with ultrashort intense laser pulses</Description>
		<PIName>Thu Le</PIName>
		<Organization>University of Connecticut</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eq81k8qpbcq9</InstitutionID>
		<FieldOfScienceID>40.0802</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1793223873</ID>
		<Name>UConn_Wang</Name>
		<Description>As the size of data explodes during the big data era, we develop a strategy to select more informative data points for building models to alleviate the computation burden. In contrast to previous studies on parametric models, our research explores the efficacy of optimal subsampling methods in gradient boosting trees, a semi-parametric method.</Description>
		<PIName>HaiYing Wang</PIName>
		<Organization>University of Connecticut</Organization>
		<Department>Department of Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eq81k8qpbcq9</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>780</ID>
		<Name>UConn_Zhang</Name>
		<Description>Graph-based clustering method with application to single-cell RNA-seq data from human pancreatic islets</Description>
		<PIName>Yuping Zhang</PIName>
		<Organization>University of Connecticut</Organization>
		<Department>Department of Statistics</Department>
		<FieldOfScience>Mathmatics and Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eq81k8qpbcq9</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>714693215</ID>
		<Name>UConn_Zhu</Name>
		<Description>GERS Laboratory working on big earth observation data and environmental change
</Description>
		<PIName>Zhe Zhu</PIName>
		<Organization>University of Connecticut</Organization>
		<Department>Department of Natural Resources and the Environment</Department>
		<FieldOfScience>Earth and Ocean Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eq81k8qpbcq9</InstitutionID>
		<FieldOfScienceID>40</FieldOfScienceID>
	</Project>
	<Project>
		<ID>821</ID>
		<Name>UEdinburgh_DUNE</Name>
		<Description>The Deep Underground Neutrino Experiment is an international flagship experiment to unlock the mysteries of neutrinos.</Description>
		<PIName>Stefan Söldner-Rembold</PIName>
		<Organization>University of Edinburgh</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/5s885xc1ooke</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>607710088</ID>
		<Name>UF_Hirschfeld</Name>
		<Description>Magnetic and toopological properties of line defects in multiband superconductors. use Bogoliubov-de Gennes equations</Description>
		<PIName>Peter Hirschfeld</PIName>
		<Organization>University of Florida</Organization>
		<Department>Physics dept.</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/84k5udeuw65m</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1223091073</ID>
		<Name>UF_Karmakar</Name>
		<Description>In this project we explore comparative forecasting performance of different sequence of nested models. In this day and time of large parameter based models such as Neural nets or LLM, it has become important to understand whether a parsimonious (less parameters) model can yield forecasts of statistically equal accuracy. This project explores this forecasting comparison via different econometric metric and aims to establish theoretical foundation. Some of the related publications can be found at https://sayarkarmakar.github.io/pages/pubs.html</Description>
		<PIName>Sayar Karmakar</PIName>
		<Organization>University of Florida</Organization>
		<Department>Department of Statistics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/84k5udeuw65m</InstitutionID>
		<FieldOfScienceID>27.0503</FieldOfScienceID>
	</Project>
	<Project>
		<ID>729</ID>
		<Name>UF_Staff</Name>
		<Description>Group for research computing staff at University of Florida</Description>
		<PIName>Erik Deumens</PIName>
		<Organization>University of Florida</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/84k5udeuw65m</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1617569803</ID>
		<Name>UF_Strother</Name>
		<Description>The Strother Lab focuses on questions at the interface between physiology and physics.  Our lab is especially interested in understanding processes at multiple levels of organization,  from the properties of individual cells up to the responses of the whole animal.  Current projects in the lab examine a range of topics, including the effects of stress on animal behavior, nervous control of the cardiovascular system, and sensory physiology. See also www.strotherlab.org.
</Description>
		<PIName>James Strother</PIName>
		<Organization>University of Florida</Organization>
		<Department>Whitney Laboratory for Marine Bioscience</Department>
		<FieldOfScience>Neuroscience, biomechanics, microscopy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/84k5udeuw65m</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>484</ID>
		<Name>UHITSACI</Name>
		<Description>A project to help get users from UH onto open science grid.</Description>
		<PIName>Sean Cleveland</PIName>
		<Organization>University of Hawaii</Organization>
		<Department>Cyberinfrastructure</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dsdkrs83f44q</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1614229361</ID>
		<Name>UIC_Lan</Name>
		<Description>Log analysis of supercomputers at ALCF.</Description>
		<PIName>Zhiling Lan</PIName>
		<Organization>University of Illinois Chicago</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/y691qclum4cv</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>321400617</ID>
		<Name>UIowa_Goddard</Name>
		<Description>Over the past decade, the scale and resource demands of neural networks have grown exponentially. Building on previous empirical research, we propose a novel algorithm called Layer Collapse, inspired by Iterative Magnitude Pruning (IMP). While IMP offers significant model compression with minimal accuracy loss, it requires specialized libraries and hardware for real-world speedups. Layer Collapse overcomes these challenges by merging the weights of pruned layers, enabling efficient compression without the need for specialized infrastructure.</Description>
		<PIName>Steve Goddard</PIName>
		<Organization>University of Iowa</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2eafckbgu51c</InstitutionID>
		<FieldOfScienceID>11.0199</FieldOfScienceID>
	</Project>
	<Project>
		<ID>807</ID>
		<Name>UIowa_Reno</Name>
		<Description>Developing a mission-independent neutrino &amp; lepton simulation/propagation package</Description>
		<PIName>Mary Hall Reno</PIName>
		<Organization>University of Iowa</Organization>
		<Department>Physics &amp; Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2eafckbgu51c</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>761</ID>
		<Name>UIowa_Sahin</Name>
		<Description>Defects in Wide Band-gap Semiconductors for Novel Quantum Materials</Description>
		<PIName>Cuneyt Sahin</PIName>
		<Organization>University of Iowa</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Condensed Matter and Materials Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2eafckbgu51c</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1409904489</ID>
		<Name>UIowa_Villarini</Name>
		<Description>The research will focus broadly on flood hydrology, extreme events, hydroloclimatology, and climate predictions. It will be done by the processing of spatial and temporal datasets and running simple statistical models.</Description>
		<PIName>Gabriele Villarini</PIName>
		<Organization>University of Iowa</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2eafckbgu51c</InstitutionID>
		<FieldOfScienceID>14.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>502024744</ID>
		<Name>ULLafayette_Hei</Name>
		<Description>While fine-tuning large language models (LLMs) to follow instructions has emerged as a pivotal paradigm, enabling promising applications such as ChatGPT and GitHub Copilot, the capability to follow arbitrary instructions also introduces acute vulnerabilities. This project aims to deepen understanding of the security and privacy risks associated with large instruction-tuned language models and to obtain insights on how to mitigate these risks.
</Description>
		<PIName>Xiali Hei</PIName>
		<Organization>University of Louisiana at Lafayette</Organization>
		<Department>Center for Advanced Computer Studies</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2cp294m0uq0z</InstitutionID>
		<FieldOfScienceID>30.7099b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1221687120</ID>
		<Name>UMBC_Nasipak</Name>
		<Description>Gravitational wave modeling, specifically the modeling the dynamics and gravitational waves of black hole binaries known as extreme-mass-ratio inspirals for future milliHertz detectors.</Description>
		<PIName>Zachary Nasipak</PIName>
		<Organization>University of Maryland, Baltimore County</Organization>
		<Department>Center for Space Sciences and Technology</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lzltwgdaag8g</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1582657206</ID>
		<Name>UMB_Raman</Name>
		<Description>We work on the structural biochemistry of energy conservation by organisms that thrive at the extremes of life.</Description>
		<PIName>C. S. Raman</PIName>
		<Organization>University of Maryland, Baltimore</Organization>
		<Department>Department of Pharmaceutical Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/atbdx81kfmv4</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>787</ID>
		<Name>UMCES_Fitzpatrick</Name>
		<Description>Using machine learning and other methods to modeling the vulnerability of species to climate change.</Description>
		<PIName>Matthew Fitzpatrick</PIName>
		<Organization>University of Maryland Center for Environmental Science</Organization>
		<Department>Appalachian Lab</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hy2af2w9vmyk</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>613</ID>
		<Name>UMN_RF_Staff</Name>
		<Description>Research Facilitation support at the University of Minnesota</Description>
		<PIName>Charles Nguyen</PIName>
		<Organization>University of Minnesota</Organization>
		<Department>Office of Information Technology</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3chofmlz7p5r</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>610</ID>
		<Name>UMT_Warren</Name>
		<Description>Public health projects such as the effect of wildfires on the respiratory health of children in rural vs urban areas, hydrology modeling in the continental US using realtime GIS data and genetic and migratory patterns in animal populations whose movement is impacted by man-made structures.</Description>
		<PIName>Allen Warren</PIName>
		<Organization>University of Montana</Organization>
		<Department>School of Public and Community Health Services</Department>
		<FieldOfScience>Mathematics and Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sdmbw89obfoi</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2041652602</ID>
		<Name>UMaine_Legaard</Name>
		<Description>Inverse parameterization of biomass growth in the LANDIS-II forest model using a pattern search algorithm to identify parameter combinations that yield predicted growth consistent with national forest inventory field measurement data.</Description>
		<PIName>Kasey Legaard</PIName>
		<Organization>University of Maine</Organization>
		<Department>Center for Research on Sustainable Forests</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jxj9y1j53ii6</InstitutionID>
		<FieldOfScienceID>03.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>384667780</ID>
		<Name>UMaine_Vel</Name>
		<Description>Study the nonlinear elastic behavior of nanomaterials using a polynomial based constitutive equation to model the behavior of the materials.</Description>
		<PIName>Senthil S. Vel</PIName>
		<Organization>University of Maine</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jxj9y1j53ii6</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1059539407</ID>
		<Name>UMassAmherst_Chen</Name>
		<Description>Our project is to prove the non-existence of symplectic curves with specific numbers and types of cusps in the two dimensional complex projective plane. The method we are using involves writing the configuration of the blow-up of the curve in a certain reduced basis of the second homology group, and then eliminating these possibilities using further constraints. If we are successful this project could further elucidate the differences between the symplectic category and the category of algebraic geometry.</Description>
		<PIName>Weimen Chen</PIName>
		<Organization>University of Massachusetts Amherst</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sqj1fi5b7fdj</InstitutionID>
		<FieldOfScienceID>27.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>109706086</ID>
		<Name>UMassAmherst_Lin</Name>
		<Description>Quantum mechanical and machine learning modeling of chemical reactions in complex systems, including heterogeneous catalysis, molecular spectroscopy, and flexible optoeletronics. https://elements.chem.umass.edu/zlinqcgroup/</Description>
		<PIName>Zhou Lin</PIName>
		<Organization>University of Massachusetts Amherst</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sqj1fi5b7fdj</InstitutionID>
		<FieldOfScienceID>40.0511b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>694</ID>
		<Name>UMassAmherst_Sloutsky</Name>
		<Description>Evolutionary reconstructions and molecular simulations of extant and ancestral proteins.</Description>
		<PIName>Roman Sloutsky</PIName>
		<Organization>University of Massachusetts Amherst</Organization>
		<Department>Biochemistry and Molecular Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sqj1fi5b7fdj</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>861526316</ID>
		<Name>UMassAmherst_VanHorn</Name>
		<Description>Fine-grained visual classification has blossomed under the advances in large-scale image datasets like iNaturalist as well as algorithmic contributions like ResNet, ViT, Vision-Language Models (VLMs) like CLIP, and Multimodal Large Language Models (MLLMs). However, VLMs and MLLMs have garnered increased interest in FGVC due to the surprising fact that underperform more classical, simpler, and smaller approaches. We currently are investigating the root causes and solutions for this underperformance, focusing on making sure that VLM/MLLM responses are visually-grounded (eg. fine-tuningt), figuring out more faithful ways to evaluate their responses (evaluation procedures and benchmarks), and being able to steer predictions with expert knowledge (Visipedia).</Description>
		<PIName>Grant Van Horn</PIName>
		<Organization>University of Massachusetts Amherst</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sqj1fi5b7fdj</InstitutionID>
		<FieldOfScienceID>11.0102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1215969804</ID>
		<Name>UMassLowell_Delhommelle</Name>
		<Description>Unraveling Crystallization and Phase Transition Processes through Topology, Rare-Event Simulations, and Machine Learning</Description>
		<PIName>Jerome Delhommelle</PIName>
		<Organization>University of Massachusetts Lowell</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Physical Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/w36omfloyrj2</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2064420708</ID>
		<Name>UMassLowell_Laycock</Name>
		<Description>Understanding the accretion and Stellar wind interaction in Black hole+massive star binary system.</Description>
		<PIName>Silas G. T. Laycock</PIName>
		<Organization>University of Massachusetts Lowell</Organization>
		<Department>Department Of Physics</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/w36omfloyrj2</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1727904597</ID>
		<Name>UMassMed_Thyme</Name>
		<Description>Understand and develop
drug treatments for intellectual disability.</Description>
		<PIName>Summer Thyme</PIName>
		<Organization>University of Massachusetts Chan Medical School</Organization>
		<Department>Biochemistry &amp; Molecular Biotechnology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/l8q9eydt487e</InstitutionID>
		<FieldOfScienceID>51.2003</FieldOfScienceID>
	</Project>
	<Project>
		<ID>757245166</ID>
		<Name>UMiami_McLaughlin</Name>
		<Description>Our overall goal is to better estimate US southeast Atlantic red snapper (Lutjanus campechanus) population size. Our current goal is to do so by incorporating close-kin mark-recapture (CKMR) data into a red snapper stock assessment model. We are in the process of running a simulation study to investigate how much improvements in parameter estimation can be achieved from including the CKMR data in the stock assessment model.</Description>
		<PIName>Paul McLaughlin</PIName>
		<Organization>University of Miami</Organization>
		<Department>Cooperative Institute for Marine &amp; Atmospheric Studies</Department>
		<FieldOfScience>Ocean Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fi0s90nsnatu</InstitutionID>
		<FieldOfScienceID>30.3201b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>4</ID>
		<Name>UMich</Name>
		<Description>To use a systems biology approach to directly and significantly impact our understanding and treatment of tuberculosis.</Description>
		<PIName>Paul Wolberg</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Microbiology and Immunology</Department>
		<FieldOfScience>Microbiology</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>26.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1495914332</ID>
		<Name>UMiss_Bennett</Name>
		<Description>In the decay of Xi_c baryon to lambda kaon pion, I am performing a likelihood fitting to extract the coupling to each potential resonance.  </Description>
		<PIName>Jake Bennett</PIName>
		<Organization>University of Mississippi</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bigpgrrmxblz</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2039215356</ID>
		<Name>UMiss_Gupta</Name>
		<Description>Determining the capabilities of next-generation gravitational wave detectors in constraining cosmological parameters.</Description>
		<PIName>Anuradha Gupta</PIName>
		<Organization>University of Mississippi</Organization>
		<Department>LIGO</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bigpgrrmxblz</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>839</ID>
		<Name>UMiss_Stein</Name>
		<Description>Numerical Relativity and Gravitational-wave physics</Description>
		<PIName>Leo Stein</PIName>
		<Organization>University of Mississippi</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bigpgrrmxblz</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>92777637</ID>
		<Name>UMissouri_Nada</Name>
		<Description>Running segmentation of 100 subjects through Freesurfer. Comparing the volumetric  measurements of the  midbrain between the disease group (PS) and control group. PSP is a movement disorder characterized by atrophy of the midbrain. We investigate quantification of the midbrain volume to early predict the disease.</Description>
		<PIName>Ayman Nada</PIName>
		<Organization>University of Missouri</Organization>
		<Department>Radiology Department</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dohu2f6ba08u</InstitutionID>
		<FieldOfScienceID>26.0102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>807195832</ID>
		<Name>UMontana_Hansen</Name>
		<Description>Study the structure, function, and pharmacology of ligand-gated ion channels. We are interested in running virtual screenings to identify novel ligands with therapeutic potential in brain disorders. Se more at https://hansen-neurolab.com/</Description>
		<PIName>Kasper Hansen</PIName>
		<Organization>University of Montana</Organization>
		<Department>Division of Biological Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sdmbw89obfoi</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1749364515</ID>
		<Name>UMontana_Roy</Name>
		<Description>1) Virtual screening - Computational or virtual screening of molecules can accelerate drug development programs. We have developed a virtual screening method to screen billions of molecules for hit generation against specific protein targets.  We want to develop the method further and also want to use the method to develop hits against specific proteins,  such as the one announced in this competition. https://cache-challenge.org/ 2) Entropy from surface properties -  Calculating entropy is tricky, as, in principle, it requires sampling vast phase space to count all available microstates.  We are developing a method for calculating the entropy of small molecules from their surface properties.  Such a method will benefit computational chemistry, especially the virtual screening community. https://www.biorxiv.org/content/10.1101/2021.05.26.445640v1.abstract  3) Transferability of polygenic risk scores (PRS) - PRS is a useful tool to estimate one's health condition propensity from their genetic makeup.  Historically, most of the PRS models were built from European ancestry samples. We are working on a network model to identify the best way  to transfer a PRS model from the population it was developed for to another population not included in the study.
</Description>
		<PIName>Amitava Roy</PIName>
		<Organization>University of Montana</Organization>
		<Department>Department of Biomedical and Pharmaceutical Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sdmbw89obfoi</InstitutionID>
		<FieldOfScienceID>26.1199</FieldOfScienceID>
	</Project>
	<Project>
		<ID>397336158</ID>
		<Name>UMontana_Wheeler</Name>
		<Description>Develop software for computational genomics and drug discovery, and apply that software at scale – http://wheelerlab.org</Description>
		<PIName>Travis Wheeler</PIName>
		<Organization>University of Montana</Organization>
		<Department>Computer Science department</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sdmbw89obfoi</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>32</ID>
		<Name>UNC-RESOLVE-photometry</Name>
		<Description>Astronomy image manipulation</Description>
		<PIName>David Stark</PIName>
		<Organization>UNC Chapel Hill</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>897906582</ID>
		<Name>UNCCharlotte_Tang</Name>
		<Description>In this project, we propose to develop a spatially explicit network modeling framework and software package (DeepPipe) based on deep learning, a state-of-the-art artificial intelligence approach, for automated characterization and anomaly detection of NCDOT’s existing underground storm drainage pipe network.</Description>
		<PIName>Wenwu Tang</PIName>
		<Organization>University of North Carolina at Charlotte</Organization>
		<Department>Department of Earth, Environmental, and Geographical Sciences</Department>
		<FieldOfScience>Geographic Information Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zehhuc2wlzf7</InstitutionID>
		<FieldOfScienceID>45.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>47763907</ID>
		<Name>UNCW_Dogan</Name>
		<Description>Medical Question Answering https://medvidqa.github.io</Description>
		<PIName>Gulustan Dogan</PIName>
		<Organization>University of North Carolina Wilmington</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/14m1189m446l</InstitutionID>
		<FieldOfScienceID>11.0102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2083273967</ID>
		<Name>UNC_2023_Mandal</Name>
		<Description></Description>
		<PIName>Anirban Mandal</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Renaissance Computing Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>75100089</ID>
		<Name>UNC_Boyle</Name>
		<Description>The goal of this project is to generate light curves from the TESS space telescope for every bright star (TESS magnitude &lt; 16) within 500 pc of Earth. I will use these light curves to measure stellar rotation periods for as many of these stars as possible. By measuring stellar rotation periods, I can identify young stars close to Earth, find new groups of young stars, and create a list of young stars around which to search for planets.</Description>
		<PIName>Andrew Boyle</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>40.0299</FieldOfScienceID>
	</Project>
	<Project>
		<ID>709</ID>
		<Name>UNC_Drut</Name>
		<Description>Computational Quantum Matter at Finite Temperature</Description>
		<PIName>Joaquin Drut</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>704454775</ID>
		<Name>UNC_Johri</Name>
		<Description>We aim to infer evolutionary parameters using a simulation-based approach. Specifically, we are interested in obtaining the distribution of beneficial fitness effects, which characterizes the frequency and magnitude of advantageous mutations. Link to lab research page: https://www.johrilab.org/research</Description>
		<PIName>Parul Johri</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Biology/Genetics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1417909615</ID>
		<Name>UNC_Xiao</Name>
		<Description>In the wild, animal groups such as fish schools and sheep herds exhibit collective motion behavior during foraging, predator evasion and migration. The mechanism for how individual sensory input is propagated through the modular groups to result in emergent behavior is elusive. We use a 2D self-propelled particle model that incorporates animal-like topological social alignment interaction as well as informed individuals with access to environmental cues. We investigate the effect of the self-organized cluster structure on how informed individuals transmit information. We aim to determine the order of phase transition in global polarization and local structure, as informedness permeates the group.</Description>
		<PIName>Yufei Xiao</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>26.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1272082860</ID>
		<Name>UND_Delhommelle</Name>
		<Description>Unraveling Crystallization and Phase Transition Processes through Topology, Rare-Event Simulations, and Machine Learning</Description>
		<PIName>Jerome Delhommelle</PIName>
		<Organization>University of North Dakota</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Physical Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mxii12n9x22s</InstitutionID>
		<FieldOfScienceID>40.0506</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1295635998</ID>
		<Name>UNESP_Ballen</Name>
		<Description>An evolutionary biologist interested in the development and implementation of quantitative methods for studying the interrelationships among living organisms. I use integrative methods in the intersection among neontology, palaeontolgy, statistical
inference, phylogenetics, and bioinformatics.</Description>
		<PIName>Gustavo Ballen</PIName>
		<Organization>Universidade Estadual Paulista (Unesp)</Organization>
		<Department>Departamento de Morfologia</Department>
		<FieldOfScience>Evolutionary Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pexc47w1nwwe</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>381</ID>
		<Name>UNH-IMD</Name>
		<Description>We are interested in developing new quantum chemistry methods and chemical structure optimization algorithms to design green heterogeneous catalysts.</Description>
		<PIName>Dequan Xiao</PIName>
		<Organization>University of New Haven</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7b1hagvpg2j1</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>180924149</ID>
		<Name>UNI_Staff</Name>
		<Description>Will be using OSPool to evaluate and develop training for UNI users.</Description>
		<PIName>Wesley Jones</PIName>
		<Organization>University of Northern Iowa</Organization>
		<Department>Information Technology, Network &amp; Infrastructure Services</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/940o5v3ne7m0</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>949458008</ID>
		<Name>UNLV_Han</Name>
		<Description>Alternative promoter usage is a major mechanism that generates transcripts that vary between tissues and cell types, and contributes to cell differentiation and organ development. Detecting alternative promoter usage usually requires data generated from specialized protocols, such as Cap-analysis gene expression (CAGE), and hence there is less data to study promoter-level regulation. We propose to build a deep learning model that can predict alternative promoter usage based on standard RNA-seq data, instead of CAGE.</Description>
		<PIName>Mira Han</PIName>
		<Organization>University of Nevada, Las Vegas</Organization>
		<Department>School of Life Sciences</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/izt1daewl286</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>190972221</ID>
		<Name>UNL_2024_Tsymbal</Name>
		<Description></Description>
		<PIName>Evgeny Tsymbal</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>14.1801b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1209011421</ID>
		<Name>UNL_Bavarian</Name>
		<Description>Computational ML for polymerization reaction engineering, electrochemical systems mathematical modeling, lithography materials product and process development and control, and process simulation and optimization of separation processes.</Description>
		<PIName>Mona Bavarian</PIName>
		<Organization>University of Nebraska–Lincoln</Organization>
		<Department>Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>841</ID>
		<Name>UNL_Cui</Name>
		<Description>Understanding complex biological systems, e.g. human diseases such as obesity and cancer, through data integration, computational modeling and knowledge discovery, to systematically understand the alterations of cells and organisms in response to environmental stimuli, and to elucidate the molecular interaction network involved in complex biological processes.</Description>
		<PIName>Juan Cui</PIName>
		<Organization>University of Nebraska - Lincoln</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>728</ID>
		<Name>UNL_Fuchs</Name>
		<Description>X-ray generation and characterization via Laser Wakefield Acceleration</Description>
		<PIName>Matthias Fuchs</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1267980677</ID>
		<Name>UNL_Hebets</Name>
		<Description>Assess spider web structure by training and tracking models using SLEAP</Description>
		<PIName>Eileen Hebets</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>727</ID>
		<Name>UNL_Howard</Name>
		<Description>Dimension Reduction Strategies for Genomic Prediction</Description>
		<PIName>Reka Howard</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Mathematics and Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1400151122</ID>
		<Name>UNL_Mukhopadhyay</Name>
		<Description>We do research in Statistics, especially in statistical genetics/genomics and multi-omic data analysis along with statistical and machine learning-based analysis in other problems.</Description>
		<PIName>Indranil Mukhopadhyay</PIName>
		<Organization>University of Nebraska–Lincoln</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>27.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1915351942</ID>
		<Name>UNL_Ramamurthy</Name>
		<Description>Research on optimizing large data transfers for science experiments</Description>
		<PIName>Byrav Ramamurthy</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>School of Computing</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>11.0199</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1560635219</ID>
		<Name>UNL_Saha</Name>
		<Description>Protein Structural Predictions and Informatics.</Description>
		<PIName>Rajib Saha</PIName>
		<Organization>University of Nebraska - Lincoln</Organization>
		<Department>Department of Chemical and Biomolecular Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>14.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>838</ID>
		<Name>UNL_Stolle</Name>
		<Description>MWRSF High Speed Computing</Description>
		<PIName>Cody Stolle</PIName>
		<Organization>University of Nebraska - Lincoln</Organization>
		<Department>Mechanical &amp; Materials Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>306842558</ID>
		<Name>UNL_Turner</Name>
		<Description>Working with ultrasonic wave propagation in polycrystalline materials. Website: https://engineering.unl.edu/quisp/</Description>
		<PIName>Joseph Turner</PIName>
		<Organization>University of Nebraska - Lincoln</Organization>
		<Department>Mechanical and Materials Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>14.1901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1116387884</ID>
		<Name>UNL_Weitzel</Name>
		<Description>Cyberinfrastructure Research</Description>
		<PIName>Derek Weitzel</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Computer Science and Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>837</ID>
		<Name>UNL_Yang</Name>
		<Description>Mediation analysis of agronomic traits in maize</Description>
		<PIName>Jinliang Yang</PIName>
		<Organization>University of Nebraska - Lincoln</Organization>
		<Department>Agronomy and Horticulture</Department>
		<FieldOfScience>Agricultural Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>403101818</ID>
		<Name>UNL_Yin</Name>
		<Description>Our lab is a Bioinformatics and Computational Biology Lab. We have the following major research interests:1. Plant and microbial bioinformatics 2. Genome biology and evolutionary genomics
3. Carbohydrate metabolism and secondary metabolism </Description>
		<PIName>Yanbin Yin</PIName>
		<Organization>University of Nebraska - Lincoln</Organization>
		<Department>Food Science and Technology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>840</ID>
		<Name>UNL_Zhang</Name>
		<Description>Designing statistically rigorous and physically sound models to integrate genome sequences, expression profiles, molecular interactions, and protein structures</Description>
		<PIName>Chi Zhang</PIName>
		<Organization>University of Nebraska - Lincoln</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>396</ID>
		<Name>UNLbcrf</Name>
		<Description>The Bioinformatics Core Research Facility at UNL runs several large scale compute projects a year. Our main compute is focused on sequence analysis, de-novo assembly and gene prediction/annotation, secondary structure prediction, peptide-protein docking, and phenotype image analysis. We tend to run projects that deal with species critical for agriculture, both crops and livestock, but also with human-virus or food-gut microbiome interactions.</Description>
		<PIName>Jean-Jack M. Riethoven</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Center for Biotechnology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2074682382</ID>
		<Name>UNM_Dadashi</Name>
		<Description>My research investigates the mechanisms of rapid and sustained evolution of polygenic traits in response to directionally shifting and temporally varying environmental selection.</Description>
		<PIName>Andisheh Dadashi</PIName>
		<Organization>University of New Mexico</Organization>
		<Department>Mathematics, Engineering, and Computer Science Division</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pclpz1bwbpdi</InstitutionID>
		<FieldOfScienceID>26.9999</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1610528445</ID>
		<Name>UNM_Gulisija</Name>
		<Description>Develop theoretical models, statistical approaches, and computer simulations to elucidate mechanisms of rapid genetic adaptation to environmental change, such as due to global climate change or habitat invasions.</Description>
		<PIName>Davorka Gulisija</PIName>
		<Organization>University of New Mexico</Organization>
		<Department>Department of Biology</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pclpz1bwbpdi</InstitutionID>
		<FieldOfScienceID>26.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>725</ID>
		<Name>UNOmaha_Chase</Name>
		<Description>Training neural networks to track animal movement</Description>
		<PIName>Bruce Chase</PIName>
		<Organization>University of Nebraska Omaha</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fg2dv7fu4myy</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>922683276</ID>
		<Name>UOregon_Melgar</Name>
		<Description>Conducting earthquake simulations as part of a larger collaboration (https://github.com/Marcus-Adair/Accelerating-Data-Intensive-Seismic-Research-Through-Parallel-Workflow-Optimization-and-Federated-CI). Planning to eventually run some ML for graph neural network GNSS denoising."</Description>
		<PIName>Diego Melgar</PIName>
		<Organization>University of Oregon</Organization>
		<Department>Cascadia Region Earthquake Science Center</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7j4ogzyjflij</InstitutionID>
		<FieldOfScienceID>40.0603</FieldOfScienceID>
	</Project>
	<Project>
		<ID>761755652</ID>
		<Name>UOregon_Shende</Name>
		<Description>The project will evaluate the feasibility of using Singularity containers from the Extreme-scale Scientific Software Stack (E4S)[https://e4s.io] in the Open Science Grid to support HPC and AI/ML workflows. E4S includes support for 100+ HPC products (e.g., TAU, Trilinos, PETSc, OpenMPI, MPICH, Kokkos, HDF5) and AI/ML products (e.g., TensorFlow, PyTorch) optimized for GPUs from three vendors (Intel, AMD, and NVIDIA). It supports LLVM compilers, vendor compilers (NVHPC, oneAPI, ROCm hipcc), on multiple architectures (including x86_64, ppc64le, and aarch64).</Description>
		<PIName>Sameer Shende</PIName>
		<Organization>University of Oregon</Organization>
		<Department>Performance Research Laboratory, Oregon Advanced Computing Institute for Science and Society (OACISS)</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7j4ogzyjflij</InstitutionID>
		<FieldOfScienceID>11.0199</FieldOfScienceID>
	</Project>
	<Project>
		<ID>467</ID>
		<Name>UPCDOSAR</Name>
		<Description>Researchers from UNAL will be using OSG and running example jobs on Monte Carlo simulations, they will be submitting jobs related to bit patterned media, following this work http://www.sciencedirect.com/science/article/pii/S1386947715303222, and will also be submitting jobs related to research in critical phenomena, similar to what was done here: http://www.sciencedirect.com/science/article/pii/S0304885316324933?via%3Dihub and here http://www.sciencedirect.com/science/article/pii/S0304885316320169?via%3Dihub</Description>
		<PIName>Rob Quick</PIName>
		<Organization>Indiana University</Organization>
		<Department>Research Technologies</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2083162629</ID>
		<Name>UPRM_Ramos</Name>
		<Description>At present we are conducting molecular dynamics simulations to study the interaction of peptides and membranes. We are aiming at understanding the mechanisms (mechanical and/or electroestatic) that are involved in the formation of pores in membranes. In order to study these systems we are performing molecular dynamics simulations with NAMD and different force fields like charmm to simulate the formation of the pores.</Description>
		<PIName>Rafael A. Ramos</PIName>
		<Organization>University of Puerto Rico - Mayaguez</Organization>
		<Department>Department of Physics  </Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/43gwnkrodhv9</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>42</ID>
		<Name>UPRRP-MR</Name>
		<Description>In this collaborative project between bioinformatics and physics we use molecular evolution simulations to evolve a population of proteins. We look for the emergence of mutational robustness of proteins in the population. This quantity measures how resistant they are to the deleterious effects of mutations. Previous results from Dr. Massey's group suggest that mutational robustness increases and eventually converges over time. This appears to be an emergent property of proteins. It has profound evolutionary implications. 

The protein structures are obtained from the Protein Data Bank. Non-robust sequences are threaded onto the structure and are subjected to random mutations. The resulting sequences are selected for their free energy of folding. Once the sequences are generated the mutational robustness is calculated in parallel (through Condor).</Description>
		<PIName>Steven Massey</PIName>
		<Organization>Universidad de Puerto Rico, Rio Piedras Campus (UPRRP)</Organization>
		<Department>Physics / Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/b1qdmhgy40ul</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>765</ID>
		<Name>UPenn_Ramdas</Name>
		<Description>Identifying causal Mendelian genes for neurodevelopmental disorders using singletons</Description>
		<PIName>Shweta Ramdas</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Genetics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1970554877</ID>
		<Name>USC_CARC</Name>
		<Description>USC Center for Advanced Research Computing Facilitators</Description>
		<PIName>BD Kim</PIName>
		<Organization>University of Southern California</Organization>
		<Department>Center for Advanced Research Computing</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>690</ID>
		<Name>USC_Deelman</Name>
		<Description>Pegasus workflow management system - development and testing</Description>
		<PIName>Ewa Deelman</PIName>
		<Organization>University of Southern California</Organization>
		<Department>Information Sciences Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>9</ID>
				<Name>ISI</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>854055598</ID>
		<Name>USC_Rahbari</Name>
		<Description>The present project aims at developing a multi-fidelity platform for uncertainty quantification of the air flow simulations over a common aerodynamic object. Thousands of low-fidelity, yet fast, simulations are required to construct the basis of this platform.</Description>
		<PIName>Iman Rahbari</PIName>
		<Organization>University of Southern California</Organization>
		<Department>Center for Advanced Research Computing</Department>
		<FieldOfScience>Mechanical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>14.1901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>944567874</ID>
		<Name>USDA_Andorf</Name>
		<Description>The research is part of the Maize Genetics and Genomics Database (MaizeGD) to utilize protein structure models to improve maize functional genomics. The project will generate new protein structure models to improve functional classification, canonical isoform detection,  gene structure annotation, and assigning confidence scores to point mutations based on the likelihood to change function.    
</Description>
		<PIName>Carson Andorf</PIName>
		<Organization>United States Department of Agriculture</Organization>
		<Department>Midwest Area, Corn Insects, and Crop Genetics Research Unit</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qtdq2vohbire</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>494188212</ID>
		<Name>USD_PHYS733</Name>
		<Description>A course on Elementary Particle and Nuclear Physics at the University of South Dakota</Description>
		<PIName>Jing Liu</PIName>
		<Organization>University of South Dakota</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Elementary Particles</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/it45nx81xgfl</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>714</ID>
		<Name>USD_RCG</Name>
		<Description>Supporting and enabling research at the University of South Dakota.</Description>
		<PIName>Ryan Johnson</PIName>
		<Organization>University of South Dakota</Organization>
		<Department>Information Technology Services</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/it45nx81xgfl</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>849</ID>
		<Name>USU_Kaundal</Name>
		<Description>Biological data is accumulating faster than people’s capacity to analyze them. Our research interests and goals revolve around mitigating this issue in the context of “information to inference” scope. At USU, Dr. Kaundal has developed an independent and collaborative research program in bioinformatics, primarily focusing on computational mining of large multi-dimensional -omics datasets, and computational modeling using supervised (Machine Learning) and unsupervised (Bayesian-based) learning. Our group is actively developing novel tools and software to apply the gained knowledge towards organismal improvement. Research in KAABiL laboratory generally falls under the following major program objectives: http://bioinfo.usu.edu/research</Description>
		<PIName>Rakesh Kaundal</PIName>
		<Organization>Utah State University</Organization>
		<Department>Bioinformatics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xjsosxnj8jij</InstitutionID>
		<FieldOfScienceID>26.1104</FieldOfScienceID>
	</Project>
	<Project>
		<ID>823</ID>
		<Name>USheffield_DUNE</Name>
		<Description>The Deep Underground Neutrino Experiment is an international flagship experiment to unlock the mysteries of neutrinos.</Description>
		<PIName>Stefan Söldner-Rembold</PIName>
		<Organization>University of Sheffield</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o55quyiox0t3</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1060226383</ID>
		<Name>UTA_Cuntz</Name>
		<Description>python simulations that test stability and the orbital dynamics of multi body systems</Description>
		<PIName>Manfred Cuntz</PIName>
		<Organization>University of Texas at Arlington</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fcm0rnxmtcor</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>917665949</ID>
		<Name>UTA_Gerring</Name>
		<Description>Research on robustness and sensitivity analysis in social science. Monte Carlo simulations to assess the properties of statistical methods under different plausible data-generating processes. Multi-model analyses of alternative model specifications.</Description>
		<PIName>John Gerring</PIName>
		<Organization>The University of Texas at Austin</Organization>
		<Department>Political Science and Government</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6z0d22dz19io</InstitutionID>
		<FieldOfScienceID>45.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1551414332</ID>
		<Name>UTA_Goplerud</Name>
		<Description>I create new methods to facilitate political science research by leveraging the intersection of Bayesian methods and machine learning. My papers create new methods to tackle a variety of common problems (heterogeneous effects, hierarchical models, ideal point estimation) where existing methods have limitations that constrain substantive researchers. My existing papers can be found on my website https://mgoplerud.com/ as well as on pre-print servers such as arxiv.
</Description>
		<PIName>Max Goplerud</PIName>
		<Organization>University of Texas at Austin</Organization>
		<Department>Department of Government</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6z0d22dz19io</InstitutionID>
		<FieldOfScienceID>27.0599b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>647811416</ID>
		<Name>UTA_Jones</Name>
		<Description>works on the NEXT neutrinoless double beta decay experiment: https://next.ific.uv.es/next/ which is an international collaboration.  The experiment is trying to determine if the neutrino is its own anti-particle.
</Description>
		<PIName>Ben Jones</PIName>
		<Organization>University of Texas at Arlington</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fcm0rnxmtcor</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>854115677</ID>
		<Name>UTAustin_Auslen</Name>
		<Description>This research is focused on public opinion estimation in subnational geographies (e.g., states, cities, legislative districts), which frequently requires testing a high volume of models. Among these projects are ongoing work on estimating state-level public opinion from cluster-sampled historical surveys (e.g., https://osf.io/preprints/socarxiv/gmyjh); estimating joint distributions of public opinion across multiple "questions"; and estimating public opinion at the state legislative district level.</Description>
		<PIName>Michael Auslen</PIName>
		<Organization>University of Texas at Austin</Organization>
		<Department>Department of Government</Department>
		<FieldOfScience>Geographic Information Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6z0d22dz19io</InstitutionID>
		<FieldOfScienceID>45.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>68661170</ID>
		<Name>UTAustin_Shoemaker</Name>
		<Description>Gravitational wave work for current and future gravitational wave detectors</Description>
		<PIName>Deirdre Shoemaker</PIName>
		<Organization>University of Texas at Austin</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6z0d22dz19io</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>776</ID>
		<Name>UTAustin_Zimmerman</Name>
		<Description>Gravitational waves and black holes</Description>
		<PIName>Aaron Zimmerman</PIName>
		<Organization>University of Texas at Austin</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Gravitational Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations>
			<ResourceAllocation>
				<Type>Other</Type>
				<SubmitResources>
					<SubmitResource>CHTC-XD-SUBMIT</SubmitResource>
					<SubmitResource>UChicago_OSGConnect_login04</SubmitResource>
					<SubmitResource>UChicago_OSGConnect_login05</SubmitResource>
				</SubmitResources>
				<ExecuteResourceGroups>
					<ExecuteResourceGroup>
						<GroupName>TACC-Stampede2</GroupName>
						<LocalAllocationID>GravSearches</LocalAllocationID>
					</ExecuteResourceGroup>
				</ExecuteResourceGroups>
			</ResourceAllocation>
		</ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6z0d22dz19io</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1439733255</ID>
		<Name>UTD_Mohapatra</Name>
		<Description>Contributor to MsPASS domain-specific package for seismologists. (https://www.mspass.org/getting_started/introduction.html)</Description>
		<PIName>Sasmita Mohapatra</PIName>
		<Organization>University of Texas at Dallas</Organization>
		<Department>Cyberinfrastructure Research Computing</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eouhp4r1y2e2</InstitutionID>
		<FieldOfScienceID>40.0699</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2110663488</ID>
		<Name>UTEP_DeBlasio</Name>
		<Description>Our group studies how to improve science by automating and optimizing the tools used by domain scientists. We do this primarily by making input specific parameter value choices which help to reduce false information introduced by using less than ideal (or default) parameter choice. The focus of the work performed here will be on data acquisition for the machine learning processes needed to further develop these methods used for making such choices for multiple sequence alignment applications. https://deblasiolab.org/</Description>
		<PIName>Dan DeBlasio</PIName>
		<Organization>University of Texas at El Paso</Organization>
		<Department>Department of Computer Science</Department>
		<FieldOfScience>Computer and Information Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kkigje11ak58</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1342269514</ID>
		<Name>UTEP_Moore</Name>
		<Description>We are developing portable containers for deep-learning frameworks and applications</Description>
		<PIName>Shirley Moore</PIName>
		<Organization>University of Texas at El Paso</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kkigje11ak58</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>874080140</ID>
		<Name>UTHealthHouston_Proctor</Name>
		<Description>We study the ecology and evolution of fungi within the human microbiome. We use genomics approaches ranging from amplicon sequencing to shotgun metagenomics and whole genome sequencing. https://dmap02.github.io/proctor-lab-website/index.html</Description>
		<PIName>Diana Proctor</PIName>
		<Organization>The University of Texas Health Science Center at Houston</Organization>
		<Department>Microbiology and Molecular Genetics</Department>
		<FieldOfScience>Microbiology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xg5xnj0cv1lf</InstitutionID>
		<FieldOfScienceID>26.0502</FieldOfScienceID>
	</Project>
	<Project>
		<ID>762921002</ID>
		<Name>UTHealthSA_Pervez</Name>
		<Description>Help researchers at UT Health San Antonio get access to OSG. They have multiple workloads.</Description>
		<PIName>Jaynal Pervez</PIName>
		<Organization>The University of Texas Health Science Center at San Antonio</Organization>
		<Department>Information Technology</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/omcgx06d6utz</InstitutionID>
		<FieldOfScienceID>11.1099</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1407748521</ID>
		<Name>UTK_Luettgau</Name>
		<Description>Piloting the National Science Data Fabric, A Platform Agnostic Testbed for Democratizing Data Delivery</Description>
		<PIName>Jakob Luettgau</PIName>
		<Organization>University of Tennessee, Knoxville</Organization>
		<Department>Electrical Engineering &amp; Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hp8930spi37u</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1585206027</ID>
		<Name>UTSA_Anantua</Name>
		<Description>I am using Monte Carlo ray-tracing code GRMONTY to create and compare two different emission models R-Beta and Critical-Beta of M87 and Sgr A*. https://richardanantua.com/spectra/
</Description>
		<PIName>Richard Anantua</PIName>
		<Organization>The University of Texas at San Antonio</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2cop1xndpdtp</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1711642752</ID>
		<Name>UTSouthwestern_Lin</Name>
		<Description>Access the molecular organization and fluctuations of the condensate with atomistic simulations</Description>
		<PIName>Milo Lin</PIName>
		<Organization>University of Texas Southwestern Medical Center</Organization>
		<Department>Department of Biophysics</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26ns7uva5t0a</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>94722749</ID>
		<Name>UToledo_2023_Gupta</Name>
		<Description></Description>
		<PIName>Anju Gupta</PIName>
		<Organization>University of Toledo</Organization>
		<Department>Mechanical, Industrial and Manufacturing Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f697s61oo78e</InstitutionID>
		<FieldOfScienceID>14.3501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>757518929</ID>
		<Name>UToledo_Guo</Name>
		<Description>This study investigates the contribution of secondary neutrons generated when therapeutic proton beams interact with metal implants such as hip prostheses, spinal rods, and surgical clips. Using Monte Carlo simulations and experimental validation, it quantifies neutron spectra and dose equivalents to patients and surrounding environments under different beam delivery techniques. The findings aim to guide clinical planning and propose mitigation strategies to minimize neutron-related risks in proton therapy.</Description>
		<PIName>Kaiming Guo</PIName>
		<Organization>University of Toledo</Organization>
		<Department>Radiation Oncology</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f697s61oo78e</InstitutionID>
		<FieldOfScienceID>26.0210</FieldOfScienceID>
	</Project>
	<Project>
		<ID>843</ID>
		<Name>UTulsa_Booth</Name>
		<Description>Research within the lab focuses on evolutionary biology, molecular ecology, and population genetics. Broadly our interests fall into two categories: the evolutionary forces driving population differentiation and dynamics within mosaic landscapes, and the evolution and ecological significance of alternative reproductive strategies. We investigate these in a variety of systems, including mammals, reptiles, amphibians, and insects, and address them using high resolution molecular markers. Much of this work is in collaboration with other researchers, maximizing the resources and expertise available to a given question.</Description>
		<PIName>Warren Booth</PIName>
		<Organization>University of Tulsa</Organization>
		<Department>Biological Sciences</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/to441mldveew</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>855734349</ID>
		<Name>UWLaCrosse_Petullo</Name>
		<Description>We are interested in high-performance computing, system software, and cybersecurity. We aim to learn the use of HTCondor and OSPool as we work towards obtaining funding for additional infrastructure. We are particularly interested in learning how to contribute compute resources to OSPool.</Description>
		<PIName>W. Michael Petullo</PIName>
		<Organization>University of Wisconsin-La Crosse</Organization>
		<Department>Department of Computer Science &amp; Computer Engineering</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dwilwle5aapv</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1405068731</ID>
		<Name>UWMadison_2023_Lee</Name>
		<Description></Description>
		<PIName>Yong Jae Lee</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>277767432</ID>
		<Name>UWMadison_2023_Wright</Name>
		<Description></Description>
		<PIName>Daniel Wright</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2011936898</ID>
		<Name>UWMadison_Agronomy_Khangura</Name>
		<Description>The research program focuses on genetic and molecular understanding of agronomically relevant traits in cereal crops, especially maize, sorghum, and wheat. Current research interests in the lab include projects aimed at enhancing molecular understanding of variants influencing plant architecture, development, immunity, and their interactions. Uses Mendelian genetics, population genetics, molecular biology, and omics tools to explore a range of plant phenotypes.</Description>
		<PIName>Rajdeep Khangura</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Plant and Agroecosystem Sciences</Department>
		<FieldOfScience>Plant Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0805</FieldOfScienceID>
	</Project>
	<Project>
		<ID>48956063</ID>
		<Name>UWMadison_Banks</Name>
		<Description>Our project utilizes an fMRI regularization penalty to sparsify large-scale (up to 216 channels) MVAR models fitted to EEG brain data. Through sparsification of these models, we can do a better job of capturing brain connectivity with only a small amount of training data.</Description>
		<PIName>Matthew Banks</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Anesthesiology</Department>
		<FieldOfScience>Electrical, Electronic, and Communications Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.1</FieldOfScienceID>
	</Project>
	<Project>
		<ID>822</ID>
		<Name>UWMadison_Bechtol</Name>
		<Description>Searching for Dark Energy evidence via gravitational double-lens effects in massive astronomical objects</Description>
		<PIName>Keith Bechtol</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>707022063</ID>
		<Name>UWMadison_Biochem_WaymentSteele</Name>
		<Description>My research seeks a quantitative and predictive understanding of biomolecular dynamics, and a deeper understanding of how evolution shapes dynamics and function.</Description>
		<PIName>Hannah Wayment-Steele</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0205</FieldOfScienceID>
	</Project>
	<Project>
		<ID>167219735</ID>
		<Name>UWMadison_CBE_Paulson</Name>
		<Description>Use AI and machine learning techniques to make algorithms that improve predictive models and process optimization. Work involves Bayesian optimization, scientific machine learning, sustainable process systems engineering, and model predictive control.</Description>
		<PIName>Joel Paulson</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Chemical and Biological Engineering</Department>
		<FieldOfScience>Chemical Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.0702</FieldOfScienceID>
	</Project>
	<Project>
		<ID>222543289</ID>
		<Name>UWMadison_CHTCFellows</Name>
		<Description>Project for summer fellows at CHTC</Description>
		<PIName>Brian Bockelman</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>337666118</ID>
		<Name>UWMadison_CHTCFellowship_2024</Name>
		<Description>Project for summer fellows at CHTC</Description>
		<PIName>Brian Bockelman</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1902741875</ID>
		<Name>UWMadison_Chemistry_Wang</Name>
		<Description>Protein Engineering, Protein Folding, Directed Evolution</Description>
		<PIName>Tina Wang</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0210</FieldOfScienceID>
	</Project>
	<Project>
		<ID>689540769</ID>
		<Name>UWMadison_Chen</Name>
		<Description>Quantifing future forest productivity change and its impact on global land use and land cover change under global climate change.</Description>
		<PIName>Min Chen</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Forest and Wildlife Ecology</Department>
		<FieldOfScience>Agricultural Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1957142731</ID>
		<Name>UWMadison_ComparativeBio_Zhao</Name>
		<Description>The Zhao lab aims to understand cellular and molecular mechanisms underlying sexual differentiation of reproductive tracts.</Description>
		<PIName>Fei Zhao</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Comparative Biosciences</Department>
		<FieldOfScience>Cellular Biology</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0406</FieldOfScienceID>
	</Project>
	<Project>
		<ID>818</ID>
		<Name>UWMadison_DeLeon</Name>
		<Description>Corn breeding and genetics</Description>
		<PIName>Natalia de Leon</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Agronomy</Department>
		<FieldOfScience>Agricultural Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1850803092</ID>
		<Name>UWMadison_DeWerd</Name>
		<Description>Simulations for radiation therapy applications</Description>
		<PIName>Larry DeWerd</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Medical Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51.2205</FieldOfScienceID>
	</Project>
	<Project>
		<ID>819</ID>
		<Name>UWMadison_Dopfer</Name>
		<Description>Real-Time Estimation and Forecasting of COVID-19 Cases and Hospitalizations</Description>
		<PIName>Doerte Doepfer</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Medical Sciences</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>947832344</ID>
		<Name>UWMadison_Feickert</Name>
		<Description>Exploring the intersection of experimental high energy physics and data science to develop the software infrastructure and AI/ML tooling necessary for physics analysis in the High-Luminosity Large Hadron Collider era as part of IRIS-HEP (https://iris-hep.org/) and the ATLAS collaboration.</Description>
		<PIName>Matthew Feickert</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Data Science Institute</Department>
		<FieldOfScience>Particle Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>817</ID>
		<Name>UWMadison_Fredrickson</Name>
		<Description>Intermetallic chemistry group interested in the origins of intergrowths</Description>
		<PIName>Daniel Fredrickson</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2051232663</ID>
		<Name>UWMadison_Gitter</Name>
		<Description>https://www.biostat.wisc.edu/~gitter/</Description>
		<PIName>Anthony Gitter</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics &amp; Medical Informatics</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1104</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1535932024</ID>
		<Name>UWMadison_Gluck-Thaler</Name>
		<Description>Understanding the molecular mechanisms of pathogenicity of necrotrophic fungi.</Description>
		<PIName>Emile Gluck-Thaler</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Plant Pathology</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0803</FieldOfScienceID>
	</Project>
	<Project>
		<ID>599</ID>
		<Name>UWMadison_Gutierrez</Name>
		<Description>Understanding crop exeriment design</Description>
		<PIName>Lucia Gutierrez</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Agronomy</Department>
		<FieldOfScience>Agronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1601748329</ID>
		<Name>UWMadison_Hanna</Name>
		<Description>Training a Reinforcement Learning agents which will interact with a simulated environment collect data and make updates to a neural network. The neural networks trained in simulation would be deployed on a physical robot in our lab.</Description>
		<PIName>Josiah Hanna</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>730</ID>
		<Name>UWMadison_Kaplan</Name>
		<Description>Bayesian Methods for Education Research</Description>
		<PIName>David Kaplan</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Educational Psychology</Department>
		<FieldOfScience>Education</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>736658707</ID>
		<Name>UWMadison_Katzfuss</Name>
		<Description>Spatial and spatio-temporal statistics, Gaussian processes, uncertainty quantification, and data assimilation</Description>
		<PIName>Matthias Katzfuss</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>27.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>815</ID>
		<Name>UWMadison_Keles</Name>
		<Description>statistical genomics</Description>
		<PIName>Sunduz Keles</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics and Medical Informatics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>816</ID>
		<Name>UWMadison_Keller</Name>
		<Description>Studying the genetic regulation and production of fungal secondary metabolites.</Description>
		<PIName>Nancy Keller</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Medical Microbiology and Immunology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>674839994</ID>
		<Name>UWMadison_Li</Name>
		<Description>Multiscale modeling, computational materials design, mechanics and physics of polymers, and machine learning-accelerated polymer design.</Description>
		<PIName>Ying Li</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>658</ID>
		<Name>UWMadison_McMillan</Name>
		<Description>Understanding structure of neural networks</Description>
		<PIName>Alan McMillan</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Radiology</Department>
		<FieldOfScience>Medical Imaging</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1820610269</ID>
		<Name>UWMadison_Negrut</Name>
		<Description>Chrono is a physics-based modelling and simulation infrastructure based on a platform-independent open-source design implemented in C++. Chrono is developed by the Negrut group; the goal is to make it available on the OSPool.</Description>
		<PIName>Dan Negrut</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1681199985</ID>
		<Name>UWMadison_Neuroscience_Rizvi</Name>
		<Description>My research group focuses on studying how patterns of gene regulation, at the level of single cells and spatially resolved, mediate homeostatic function within the central nervous system. We compare these results against neurodegenerative disease states, seeking to understand the molecular and cellular basis for dysfunction.</Description>
		<PIName>Abbas Rizvi</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Neuroscience</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>942983926</ID>
		<Name>UWMadison_OConnor</Name>
		<Description>The overarching goal of the O’Connor lab is to contribute meaningfully to the global response to viral infections impacting human health.</Description>
		<PIName>David O'Connor</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Pathology and Laboratory Medicine</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0999b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1316450779</ID>
		<Name>UWMadison_ObGyn_Stanic-Kostic</Name>
		<Description>The Stanic lab is focused on deciphering the role of Innate Lymphoid cells and immune cellular networks in the architectural organization of the maternal/fetal interface.

His research program is dedicated to unravelling the cellular networks underlying preeclampsia, intrauterine growth restriction, recurrent pregnancy loss and implantation failure in Assisted Reproductive Technologies. Our lab employs both human and mouse models of reproductive physiology and disease. We use genetic targeting of immune cell development and function to dissect their role in reproductive tissue organization and disease. We collaborate closely with biostatisticians and computer scientists to develop novel workflows for analysis of our high-dimensional flow cytometry data sets and model the reproductive immune cell networks.</Description>
		<PIName>Aleksandar Stanic-Kostic</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Obstetrics and Gynecology</Department>
		<FieldOfScience>Biomedical research</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0507</FieldOfScienceID>
	</Project>
	<Project>
		<ID>585</ID>
		<Name>UWMadison_Parks</Name>
		<Description></Description>
		<PIName>Brian Parks</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Nutritional Science</Department>
		<FieldOfScience>Nutritional Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>19.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>703</ID>
		<Name>UWMadison_Paskewitz</Name>
		<Description>Training neural networks to classify images of ticks</Description>
		<PIName>Susan Paskewitz</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Entomology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1673984284</ID>
		<Name>UWMadison_Payseur</Name>
		<Description>Work on understanding the origin of species and the evolution of recombination</Description>
		<PIName>Bret Payseur</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Genetics</Department>
		<FieldOfScience>Genomics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0807</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1734551058</ID>
		<Name>UWMadison_Radiology_Yu</Name>
		<Description>The Yu lab is currently aligned along three major thematic and interrelated areas of interest: (1) examining the impact of genes, the environment, and gene-environment interactions on quantitative brain microstructure in neurocognitive and neuropsychiatric illness; (2) biological validation and clinical translation of methodological innovations in diffusion weighted MRI for accurate diagnosis and tracking therapeutic outcomes in patient care, clinical trials, and patient-oriented research; and (3) development of MR and PET neuroimaging methods for the sensitive detection and characterization of microglial-driven neuroinflammation and synaptic loss in neurologic and psychiatric disease.</Description>
		<PIName>John-Paul Yu</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Radiology</Department>
		<FieldOfScience>Medical Imaging</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51.0920</FieldOfScienceID>
	</Project>
	<Project>
		<ID>676</ID>
		<Name>UWMadison_Rebel</Name>
		<Description>Project for Brian Rebel high energy physics group from UW-Madison</Description>
		<PIName>Brian Rebel</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1545894949</ID>
		<Name>UWMadison_ReproML_Fall25</Name>
		<Description>Scientific researchers need reproducible software environments for complex applications that can run across heterogeneous computing platforms. Modern open source tools, like Pixi, provide automatic reproducibility solutions for all dependencies while providing a high level interface well suited for researchers.

This in-person workshop will provide a practical introduction to using Pixi to easily create computing environments for scientific and AI/ML workflows that benefit from hardware acceleration, across multiple machines and platforms. The focus will be on applications using Python machine learning libraries with CUDA enabled, as well as deploying these environments to production settings in Linux container images. This workshop will not teach machine learning concepts, but will focus on the methodologies and tools to make existing machine learning workflows reproducible.</Description>
		<PIName>Matthew Feickert</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Data Science Institute</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>705</ID>
		<Name>UWMadison_Rui</Name>
		<Description>Structure + behavior of genomes related to lymphoma</Description>
		<PIName>Lixin Rui</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Medicine</Department>
		<FieldOfScience>Health</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1878244627</ID>
		<Name>UWMadison_STAT605_2025Fall_Gillett</Name>
		<Description>Project for core statistics course in data science skills.</Description>
		<PIName>John Gillette</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>30.7001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>702</ID>
		<Name>UWMadison_Skala</Name>
		<Description>Using neural networks to segment microscope cell images</Description>
		<PIName>Melissa Skala</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Medical Engineering</Department>
		<FieldOfScience>Medical Imaging</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>51</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1720904433</ID>
		<Name>UWMadison_SoilEnvSci_Lu</Name>
		<Description>Processing geospatial and temporal data to understand ecosystem processes and land management.</Description>
		<PIName>Chaoqun Lu</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Soil and Environmental Sciences</Department>
		<FieldOfScience>Agronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>01.1201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>565863889</ID>
		<Name>UWMadison_Solis-Lemus</Name>
		<Description>Using machine learning methods to identify sounds from audio recordings in multiple regions of the world through time.
</Description>
		<PIName>Claudia Solis-Lemus</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Plant Pathology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>3563503</ID>
		<Name>UWMadison_Statistics_Katzfuss</Name>
		<Description>Research interests include computational spatial and spatio-temporal statistics, Gaussian processes, uncertainty quantification, and data assimilation, with applications to environmental and satellite remote-sensing data.</Description>
		<PIName>Matthias Katzfuss</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Statistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>27.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>704</ID>
		<Name>UWMadison_Tang</Name>
		<Description>Meta-analysis of microbiome studies</Description>
		<PIName>Zhengzheng Tang</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biostatistics and Medical Informatics</Department>
		<FieldOfScience>Biostatistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1303771801</ID>
		<Name>UWMadison_Travers</Name>
		<Description>Study of whole brain white matter development in autistic and non-autistic children</Description>
		<PIName>Brittany Travers</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Waisman Center</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>631</ID>
		<Name>UWMadison_Vavilov</Name>
		<Description>Research group of Maxim Vavilov</Description>
		<PIName>Maxim Vavilov</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1507309816</ID>
		<Name>UWMadison_Waisman_Dean</Name>
		<Description>Fitting models to quantitative brain imaging to study human brain development.</Description>
		<PIName>Doug Dean</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Pediatrics</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>702</ID>
		<Name>UWMadison_Wei</Name>
		<Description>Economic modeling</Description>
		<PIName>Shiyan Wei</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>45.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2105275840</ID>
		<Name>UWMadison_Weigel</Name>
		<Description>Animal breeding and Genomics</Description>
		<PIName>Kent Weigel</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Animal and Dairy Sciences</Department>
		<FieldOfScience>Genomics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>698</ID>
		<Name>UWMadison_Wright</Name>
		<Description>Project for Daniel Wright's research group at UW-Madison</Description>
		<PIName>Daniel Wright</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>14.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1560494622</ID>
		<Name>UWMilwaukee_Yoon</Name>
		<Description>Developing new estimation methods for structural economic models. To evaluate the performance of the new method, Monte Carlo simulations are used to solve constrained minimization problems. The method is used for estimating empirical games and other structural models with strategic interactions.
</Description>
		<PIName>Jangsu Yoon</PIName>
		<Organization>University of Wisconsin-Milwaukee</Organization>
		<Department>Department of Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/812rlsqwylrc</InstitutionID>
		<FieldOfScienceID>45.0601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>664116810</ID>
		<Name>UW_2023_Ban</Name>
		<Description></Description>
		<PIName>Xuegang Ban</PIName>
		<Organization>University of Washington</Organization>
		<Department>Civil and Environmental Engineering</Department>
		<FieldOfScience>Civil Engineering</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>14.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1452800579</ID>
		<Name>UW_Kukull</Name>
		<Description>Using machine learning approaches to understand Alzheimer's disease.</Description>
		<PIName>Walter Kukull</PIName>
		<Organization>University of Washington</Organization>
		<Department>Epidemiology</Department>
		<FieldOfScience>Multidisciplinary</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>26.1309</FieldOfScienceID>
	</Project>
	<Project>
		<ID>39353583</ID>
		<Name>UW_Loverde</Name>
		<Description>The University of Washington Dark Universe Science Center brings experts in dark matter, dark energy, inflation, and gravity together with those who study how these invisible ingredients drive the evolution of the Universe along with the stars, black holes, and galaxies within it. By combining observations of the cosmos with direct measurements of the Universe’s invisible content, we hope to fundamentally change our understanding of Nature. (https://sites.google.com/uw.edu/dusc)</Description>
		<PIName>Marilena Loverde</PIName>
		<Organization>University of Washington</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>644</ID>
		<Name>UW_deKok</Name>
		<Description>NLP for business narratives</Description>
		<PIName>Ties de Kok</PIName>
		<Organization>University of Washington</Organization>
		<Department>Economics</Department>
		<FieldOfScience>Economics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>42</FieldOfScienceID>
	</Project>
	<Project>
		<ID>647</ID>
		<Name>UserSchool2016</Name>
		<Description>Training account for 2016 User School</Description>
		<PIName>Christina Koch</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>751</ID>
		<Name>Utah_Chipman</Name>
		<Description>Designing Adaptive Clinical Trials</Description>
		<PIName>Jonathan Chipman</PIName>
		<Organization>University of Utah</Organization>
		<Department>Population Health Sciences</Department>
		<FieldOfScience>Biostatistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iwlonrroeaal</InstitutionID>
		<FieldOfScienceID>26.1102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1902734420</ID>
		<Name>Utah_Nelson</Name>
		<Description>Monte Carlo research for the simulation of radiation transport for applications in medicine.  Will be looking at proton therapy applications specifically using the Geant4 wrapper, TOPAS.
</Description>
		<PIName>Nicholas Nelson</PIName>
		<Organization>University of Utah</Organization>
		<Department>Department of Radiation Oncology</Department>
		<FieldOfScience>Physics and radiation therapy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iwlonrroeaal</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>375187130</ID>
		<Name>Utah_Staff</Name>
		<Description>The CHPC is University of Utah's home for research computing and data.</Description>
		<PIName>Martin Cuma</PIName>
		<Organization>University of Utah</Organization>
		<Department>Center for High Performance Computing</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/iwlonrroeaal</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>356</ID>
		<Name>VERITAS</Name>
		<Description>VERITAS is an array of four imaging atmospheric Cherenkov telescopes to detect gamma-rays with energies above 100 GeV from astrophysical sources. This project produces Monte Carlo simulations of air showers and the detector response for VERITAS and other imaging Cherenkov telescope project</Description>
		<PIName>Nepomuk Otte</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>School of Physics &amp; Center for Relativistic Astrophysics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1183071664</ID>
		<Name>VT_Riexinger</Name>
		<Description>Virginia Traffic Cameras for Advanced Safety Technologies (VTCAST) - analyzing driver behavior from one year of VA traffic camera video</Description>
		<PIName>Luke Riexinger</PIName>
		<Organization>Virginia Tech University</Organization>
		<Department>Biomedical Engineering and Mechanics</Department>
		<FieldOfScience>Biomedical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6oylis0t2x6u</InstitutionID>
		<FieldOfScienceID>14.0501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>738</ID>
		<Name>Vanderbilt_Gabella</Name>
		<Description>Numerical Relativity simulations of astronomical gravitational wave progenitor systems</Description>
		<PIName>William Gabella</PIName>
		<Organization>Vanderbilt University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7bgts07ydpxp</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1514376691</ID>
		<Name>Vanderbilt_Luzum</Name>
		<Description>The phenomenological study of relativistic heavy-ion collisions, using hydrodynamic simulations in conjunction with experimental data to extract properties of the Quark-Gluon Plasma and the structure of nuclei.</Description>
		<PIName>Matthew Luzum</PIName>
		<Organization>Vanderbilt University</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7bgts07ydpxp</InstitutionID>
		<FieldOfScienceID>40.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>642825052</ID>
		<Name>Vanderbilt_Paquet</Name>
		<Description>study the quark-gluon plasma produced in collisions of nuclei. I perform relativistic hydrodynamic simulations of the collisions and  study in particular the production of photons in the collisions. This is my Vanderbilt website: https://as.vanderbilt.edu/physics-astronomy/bio/jean-francois-paquet/ This is my professional website: https://j-f-paquet.github.io/
</Description>
		<PIName>Jean-Francois Paquet</PIName>
		<Organization>Vanderbilt University</Organization>
		<Department>Department of Physics &amp; Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7bgts07ydpxp</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>592</ID>
		<Name>Venda_Arrey</Name>
		<Description>A Bayesian Modelling approach to Vadose Zone Flow</Description>
		<PIName>Ivo Arrey</PIName>
		<Organization>University of Venda</Organization>
		<Department>Hydrology and Water Resourcews</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8rl7p1o3czlh</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>157005651</ID>
		<Name>Villanova_Grant</Name>
		<Description>Performing multi-object tracking on benchmarked datasets using Python libraries (opencv, numpy, sklearn, etc.) https://motchallenge.net</Description>
		<PIName>Jason Grant</PIName>
		<Organization>Villanova University</Organization>
		<Department>Computing Sciences</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p5dkoevnrvt0</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>768</ID>
		<Name>Villanova_Staff</Name>
		<Description>Research Computing Staff at Villanova University</Description>
		<PIName>Aaron P. Wemhoff</PIName>
		<Organization>Villanova University</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p5dkoevnrvt0</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>538</ID>
		<Name>VolcanoTomography</Name>
		<Description>Volcano Tomography Using Cosmic Ray Muons</Description>
		<PIName>David Martinez Caicedo</PIName>
		<Organization>South Dakota School of Mines and Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/k3rbyge3uinw</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>656</ID>
		<Name>WCUPA_Ngo</Name>
		<Description>Emulating sensor data collection via the OSG</Description>
		<PIName>Linh Ngo</PIName>
		<Organization>West Chester University of Pennsylvania</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/osvmob55hi8c</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>430</ID>
		<Name>WEST</Name>
		<Description>Phenotyping leaf epidermis by optical tomography and computer vision to evaluate stomatal patterning across natural diversity and transgenic lines of Sorghum and Setaria</Description>
		<PIName>Dr. Andrew Leakey</PIName>
		<Organization>University of Illinois Urbana-Champaign</Organization>
		<Department>Plant Biology</Department>
		<FieldOfScience>Plant Biology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>26.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>447256437</ID>
		<Name>WM_DelVecchio</Name>
		<Description>Project involves linking existing cyberinfrastructure to task of scalable and reproducible analysis of Arctic landscapes and climate data (https://www.nsf.gov/awardsearch/showAward?AWD_ID=2311319). Part of a "Pathways" project for the National Discovery Cloud for Climate with the goal of linking up existing projects and infrastructure to enhance science projects like mine. Goals of this collaboration include accessing satellite and climate data stored on lab servers/AWS, efficient/distributed computation on those datasets, and hosting some sort of cached version of those datasets for quick access and analysis.</Description>
		<PIName>Joanmarie Del Vecchio</PIName>
		<Organization>William &amp; Mary</Organization>
		<Department>Department of Geology</Department>
		<FieldOfScience>Geological and Earth Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/1beyy0e3qcfu</InstitutionID>
		<FieldOfScienceID>40.0699</FieldOfScienceID>
	</Project>
	<Project>
		<ID>570</ID>
		<Name>WSU_3DHydro</Name>
		<Description>(3+1)D Dynamical modeling of relativistic heavy-ion nuclear behavior</Description>
		<PIName>Chun Shen</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Department of Physics and Astronomy</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>562</ID>
		<Name>WUSTL_Harris</Name>
		<Description>Effects of simulated interventions on joint loading in patients with bony hip pathologies</Description>
		<PIName>Michael Harris</PIName>
		<Organization>Washington University in St. Louis</Organization>
		<Department>School of Medicine Program in Physical Therapy</Department>
		<FieldOfScience>Physical Therapy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3d30s0gjz8yx</InstitutionID>
		<FieldOfScienceID>51.2308</FieldOfScienceID>
	</Project>
	<Project>
		<ID>42915845</ID>
		<Name>Washington_Savage</Name>
		<Description>Quantum simulations of many-body systems for nuclear and high-energy physics (https://iqus.uw.edu).</Description>
		<PIName>Martin J. Savage</PIName>
		<Organization>University of Washington</Organization>
		<Department>IQuS, Department of Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>667</ID>
		<Name>WayneStateU_Majumder</Name>
		<Description>Jetscape heavy ion collision simulations</Description>
		<PIName>Abhijit Majumder</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>722</ID>
		<Name>WayneStateU_Pique-Regi</Name>
		<Description>Cracking the gene regulatory grammar</Description>
		<PIName>Roger Pique-Regi</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Center for Molecular Medicine and Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>675</ID>
		<Name>WayneStateU_Pruneau</Name>
		<Description>Simulations of heavy-ion collisions with Hydrodynamics</Description>
		<PIName>Claude Pruneau</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>565</ID>
		<Name>WayneStateU_Staff</Name>
		<Description>Staff at Wayne State University's HPC Services</Description>
		<PIName>Michael Thompson</PIName>
		<Organization>Wayne State University</Organization>
		<Department>High Performance Computing Services</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>566</ID>
		<Name>WayneStateU_TDA</Name>
		<Description>Topological Data Analysis of fMRI Signals during Learning: Function to Structure</Description>
		<PIName>Andrew Salch</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Mathmatics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>665</ID>
		<Name>WeNMR</Name>
		<Description>WeNMR is a Virtual Research Community supported by EGI. WeNMR aims at bringing together complementary research teams in the structural biology and life science area into a virtual research community at a worldwide level and provide them with a platform integrating and streamlining the computational approaches necessary for data analysis and modelling.</Description>
		<PIName>Alexandre Bonvin</PIName>
		<Organization>Utrecht University</Organization>
		<Department>N/A</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>73</ID>
				<Name>ENMR</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e333zusaa3hr</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1498730645</ID>
		<Name>Webster_Suo</Name>
		<Description>This work aims to construct a flexible scan system using multiple cameras  that can correctly reconstruct 3D objects -- a human face with expression. The work  proposed and used mathematical models to automate the 3D object reconstruction.
</Description>
		<PIName>Xiaoyuan Suo</PIName>
		<Organization>Webster University</Organization>
		<Department>Computer and information science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/x8bhzbc8sk5b</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>409</ID>
		<Name>WheatGenomics</Name>
		<Description>Analysis of wheat genome and transcriptome datasets</Description>
		<PIName>Ghana Challa</PIName>
		<Organization>South Dakota State University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/oqz71b6b44za</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1296704977</ID>
		<Name>WichitaState_Hwang</Name>
		<Description>Analysis of porous media using pore-scale simulations of additively manufactured wicks with X-ray computed tomography.</Description>
		<PIName>Gisuk Hwang</PIName>
		<Organization>Wichita State University</Organization>
		<Department>Department of Mechanical Engineering</Department>
		<FieldOfScience>Mechanical Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3nn2sljiwwl</InstitutionID>
		<FieldOfScienceID>14.1901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>5294497</ID>
		<Name>Wichita_Figy</Name>
		<Description>My research field is Theoretical Physics, and I am working in Computational Quantum Field Theory.</Description>
		<PIName>Terrance Figy</PIName>
		<Organization>Wichita State University</Organization>
		<Department>Department of Mathematics, Statistics and Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p3nn2sljiwwl</InstitutionID>
		<FieldOfScienceID>13.1213</FieldOfScienceID>
	</Project>
	<Project>
		<ID>2071953196</ID>
		<Name>WiscNet_Plonka</Name>
		<Description>Experimenting and collaborating with HTC for WiscNet members.</Description>
		<PIName>David Plonka</PIName>
		<Organization>WiscNet</Organization>
		<Department>Research</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/t8fk114ug1do</InstitutionID>
		<FieldOfScienceID>11.0901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>794</ID>
		<Name>Workshop-RMACC21</Name>
		<Description>Project for RMACC 2021 participants</Description>
		<PIName>Christina Koch</PIName>
		<Organization>Open Science Grid</Organization>
		<Department>OSGConnect</Department>
		<FieldOfScience>Training</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8hgx4a4ptpt9</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>502819071</ID>
		<Name>Wyoming_ARCC</Name>
		<Description>Group for ARCC staff at University of Wyoming.</Description>
		<PIName>Mike Killean</PIName>
		<Organization>University of Wyoming</Organization>
		<Department>Advanced Research Computing Center</Department>
		<FieldOfScience>Research Computing</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/08r7n3jv5f14</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>715</ID>
		<Name>XSEDE_ECSS</Name>
		<Description>Support for XSEDE users through ECSS</Description>
		<PIName>Robert Sinkovits</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>San Diego Supercomputing Center</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>771</ID>
		<Name>XSEDE_XCI</Name>
		<Description>The mission of the XSEDE Cyberinfrastructure Integration (XCI)  team is to integrate, adapt, and disseminate software tools and related  services across the national CI community enabling the US research  community to do its work better and more easily than before – making it  easier for administrators and users of campus-based cyberinfrastructure  systems to make use of tools created by XSEDE for local benefit, and  expand upon XSEDE's effort to enable the creation of an integrated national  cyberinfrastructure. XCI is using OSG resources to learn how OSG tools and  services work, and to explore potential areas of collaborations. This  includes but is not limited to OSG Connect, HTCondor, CVMFS, and identity  and access management services.  https://www.xsede.org/ecosystem/ci-integration</Description>
		<PIName>John-Paul Navarro</PIName>
		<Organization>Argonne National Lab</Organization>
		<Department>XSEDE Cyberinfrastructure Integration (XCI)</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26xdp9lwzmhd</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>135</ID>
		<Name>XeTPC</Name>
		<Description>Investigate the physics potential of high pressure Xenon TPC for detection of rare processes and develop reconstruction techniques for extremely high granularity detectors.</Description>
		<PIName>Adam Para</PIName>
		<Organization>Fermilab</Organization>
		<Department>Scientific Computing Simulation</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>568792010</ID>
		<Name>YSU_Yu</Name>
		<Description>Approximate query processing (or AQP) is an emerging research topic in big data analytics. AQP focuses on deriving fast and accurate estimations for complex queries that are usually time-consuming and expensive to run on large datasets. Traditional methods, such as histogram and sketch, are insufficient when applied to big data because of the processing limits. An essential question lacking research is how to assess the errors of AQP estimations.
This project focuses on assessing the errors of AQP query estimations, especially for common selection queries. Traditional methods can generate confidence intervals for query estimations based on strict assumptions such as the normal distribution assumption. Therefore, they are not applicable to massive datasets. In this project, the PI will employ a novel non-parametric statistical method called bootstrap sampling which requires less strict assumptions and brings many statistical advantages.
A prototype system will be developed employing bootstrap sampling to efficiently compute standard errors and confidence intervals for AQP systems, especially those answering selection queries, namely σ-AQP. Selection queries comprise a large portion of daily data queries. For broader applications, this framework will allow selection queries to include common aggregation operators such as average, sum, and count. The PI will investigate the computing and storage costs when bootstrap replicas are computed. A framework will be developed to automate both the AQP estimation and error estimation operations. Extensive benchmarks will be performed on large datasets such as the TPC-H benchmark.</Description>
		<PIName>Feng Yu</PIName>
		<Organization>Youngstown State University</Organization>
		<Department>Computer Science and Information Systems</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/afu2chyu4qlj</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1773809937</ID>
		<Name>Yale_DeMartini</Name>
		<Description>Numerical simulations of the (1+1)D abelian Higgs theory on the lattice focusing on the computation of the sphaleron rate at finite temperatures and potential connections between confinement and entanglement entropy.</Description>
		<PIName>Dallas DeMartini</PIName>
		<Organization>Yale University</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/np1w2l1semy5</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1015924808</ID>
		<Name>Yale_Lee</Name>
		<Description>The goal of this research is to perform inference of drug binding affinities by our recently developed AI models on a ultra-large scale.</Description>
		<PIName>Ho-Joon Lee</PIName>
		<Organization>Yale University</Organization>
		<Department>Genetics</Department>
		<FieldOfScience>Genetics and Nucleic Acids</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/np1w2l1semy5</InstitutionID>
		<FieldOfScienceID>26.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>608</ID>
		<Name>Yale_RYang</Name>
		<Description>Network Resource Abstraction and Optimization for Large-Scale Scientific Workflow</Description>
		<PIName>Richard Yang</PIName>
		<Organization>Yale University</Organization>
		<Department>Department of Computer Science</Department>
		<FieldOfScience>Computer and Information Services</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/np1w2l1semy5</InstitutionID>
		<FieldOfScienceID>11.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1523866829</ID>
		<Name>Yale_Skelly</Name>
		<Description>Population genetics and Comparative genomics</Description>
		<PIName>David Skelly</PIName>
		<Organization>Yale University</Organization>
		<Department>Yale School of the Environment </Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/np1w2l1semy5</InstitutionID>
		<FieldOfScienceID>24.0103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>506586225</ID>
		<Name>Yale_YCRC</Name>
		<Description>Yale Center for Research Computing - user facilitation</Description>
		<PIName>Sinclair Im</PIName>
		<Organization>Yale University</Organization>
		<Department>Center for Research Computing</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/np1w2l1semy5</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>437</ID>
		<Name>a1synchrony</Name>
		<Description>We investigate how synchronous population activity arise in spiking dynamics of the sensory and other cortical areas. We especially focus on how primary auditory cortex modulate dynamical timescales during spontaneous bump dynamics in quiet wake condition and up and down states in anesthetized and sleep conditions.</Description>
		<PIName>Yashar Ahmadian</PIName>
		<Organization>University of Oregon</Organization>
		<Department>Institute of Neuroscience</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7j4ogzyjflij</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1112265738</ID>
		<Name>adattie</Name>
		<Description>Our laboratory uses mouse genetics to identify novel causal and responsive genes leading to metabolic diseases.</Description>
		<PIName>Alan Attie</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Biochemistry</Department>
		<FieldOfScience>Genetics and Nucleic Acids</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.0801</FieldOfScienceID>
	</Project>
	<Project>
		<ID>374</ID>
		<Name>all</Name>
		<Description>The South Pole Telescope (or SPT) is a new telescope deployed at the South Pole that is designed to study the Cosmic Microwave background. Constructed between November 2006 and February 2007, the SPT is the largest telescope ever deployed at the South Pole. This telescope provides astronomers a powerful new tool to explore dark energy, the mysterious phenomena that may be causing the universe to accelerate.  SPT members from various institutions are all added into this group. This group utilize the OSG opportunistic cycles.</Description>
		<PIName>John Carlstrom</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>19</ID>
				<Name>SPT Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>68</ID>
		<Name>aprime</Name>
		<Description>DarkLight experiment planned to run at Jefferson LAB in the upcoming years will search for a massive photon possibly produced in interaction of an electron with electric filed of a proton.

Monte-Carlo simulations are needed design and optimize the Darklight experiment. The initial OSG-Connect resources of few CPU years will be sufficient. The simulation will use CERN libraries, namely: Geant4.10, root5.34, compiled on Scientific Linux 6.5.</Description>
		<PIName>Jan Balewski</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>LNS</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>426</ID>
		<Name>asurcosg</Name>
		<Description>Testing OSG integration with ASU HPC</Description>
		<PIName>Johnathan Lee</PIName>
		<Organization>Arizona State University</Organization>
		<Department>Research Computing</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/er1rnzey26m9</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>292</ID>
		<Name>atlas.org.Jet-EtMiss</Name>
		<Description>ATLAS Connect team for Jet EtMiss</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>296</ID>
		<Name>atlas.org.Tau</Name>
		<Description>ATLAS Connect team for Tau</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>246</ID>
		<Name>atlas.org.albany</Name>
		<Description>ATLAS Connect team for SUNY Albany</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>State University of New York at Albany</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9adt6gcsr8c</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>247</ID>
		<Name>atlas.org.anl</Name>
		<Description>ATLAS Connect team for Argonne National Laboratory</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Argonne National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/26xdp9lwzmhd</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>248</ID>
		<Name>atlas.org.arizona</Name>
		<Description>ATLAS Connect team for University of Arizona</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>249</ID>
		<Name>atlas.org.bnl</Name>
		<Description>ATLAS Connect team for Brookhaven National Laboratory</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>250</ID>
		<Name>atlas.org.brandeis</Name>
		<Description>ATLAS Connect team for Brandeis University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Brandeis University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/z5fxzhzsjpb0</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>251</ID>
		<Name>atlas.org.bu</Name>
		<Description>ATLAS Connect team for Boston University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Boston University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/drujeuinri1g</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>252</ID>
		<Name>atlas.org.columbia</Name>
		<Description>ATLAS Connect team for Columbia University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Columbia University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>91</ID>
		<Name>atlas.org.duke</Name>
		<Description>Duke University's Tier 2 ATLAS group in ATLAS Connect.</Description>
		<PIName>Doug Benjamin</PIName>
		<Organization>Duke University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>90</ID>
		<Name>atlas.org.fresnostate</Name>
		<Description>Fresno State University's Tier 3 ATLAS group in ATLAS Connect.</Description>
		<PIName>Harinder Singh Bawa</PIName>
		<Organization>Fresno State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yjoil34g24pn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>253</ID>
		<Name>atlas.org.hamptonu</Name>
		<Description>ATLAS Connect team for Hampton University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Hampton University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/k38kbasl5hpd</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>254</ID>
		<Name>atlas.org.harvard</Name>
		<Description>ATLAS Connect team for Harvard University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Harvard University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n1kbnzl7kyiv</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>255</ID>
		<Name>atlas.org.iastate</Name>
		<Description>ATLAS Connect team for Iowa State University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Iowa State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wbwnw037cybm</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>93</ID>
		<Name>atlas.org.illinois</Name>
		<Description>University of Illinois Urbana/Champaign Tier 3 ATLAS group.</Description>
		<PIName>Mark Neubauer</PIName>
		<Organization>University of Illinois</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/10izzs5e7v1r</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>92</ID>
		<Name>atlas.org.indiana</Name>
		<Description>Indiana University Tier 3 ATLAS group.</Description>
		<PIName>Frederick Luehring</PIName>
		<Organization>Indiana University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>256</ID>
		<Name>atlas.org.latech</Name>
		<Description>ATLAS Connect team for Louisiana Tech University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Louisiana Tech University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qmx56gydd858</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>257</ID>
		<Name>atlas.org.lbnl</Name>
		<Description>ATLAS Connect team for Lawrence Berkeley National Laboratory</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Lawrence Berkeley National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bvf12qyqplv6</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>258</ID>
		<Name>atlas.org.louisville</Name>
		<Description>University of Louisville</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Louisville</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hmbcygnwgzdu</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>259</ID>
		<Name>atlas.org.mit</Name>
		<Description>ATLAS Connect team for MIT</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>260</ID>
		<Name>atlas.org.msu</Name>
		<Description>ATLAS Connect team for Michigan State University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Michigan State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wala2w0ka0gb</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>261</ID>
		<Name>atlas.org.niu</Name>
		<Description>ATLAS Connect team for Northern Illinois University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Northern Illinois University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4q4axu2r92r6</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>262</ID>
		<Name>atlas.org.nyu</Name>
		<Description>ATLAS Connect team for New York University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>New York University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hjcl6b3vh3ox</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>263</ID>
		<Name>atlas.org.okstate</Name>
		<Description>ATLAS Connect team for Oklahoma State University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Oklahoma State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ogvkim1urhzk</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>264</ID>
		<Name>atlas.org.osu</Name>
		<Description>ATLAS Connect team for The Ohio State University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>The Ohio State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>265</ID>
		<Name>atlas.org.ou</Name>
		<Description>ATLAS Connect team for Oklahoma University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Oklahoma University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xvsrc4eixk2g</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>266</ID>
		<Name>atlas.org.pitt</Name>
		<Description>ATLAS Connect team for University of Pittsburgh</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>267</ID>
		<Name>atlas.org.sc</Name>
		<Description>ATLAS Connect team for University of South Carolina</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of South Carolina</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p58u55ae2ahu</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>268</ID>
		<Name>atlas.org.slac</Name>
		<Description>ATLAS Connect team for SLAC National Accelerator Laboratory</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>SLAC National Accelerator Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gsbt8law2xf0</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>269</ID>
		<Name>atlas.org.smu</Name>
		<Description>ATLAS Connect team for Southern Methodist University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Southern Methodist University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/9g1dmrei1pes</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>270</ID>
		<Name>atlas.org.stonybrook</Name>
		<Description>ATLAS Connect team for State University of New York — Stony Brook</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>State University of New York at Stony Brook</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qqd2s2b6m7eh</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>271</ID>
		<Name>atlas.org.tufts</Name>
		<Description>ATLAS Connect team for Tufts University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Tufts University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/vtcuoa0mgv9x</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>63</ID>
		<Name>atlas.org.uchicago</Name>
		<Description>Tier3 computing for the UChicago ATLAS group via the ATLAS Connect service</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>High Energy Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>272</ID>
		<Name>atlas.org.uci</Name>
		<Description>ATLAS Connect team for University of California, Irvine</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of California, Irvine</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ss614ab1u5qd</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>273</ID>
		<Name>atlas.org.ucsc</Name>
		<Description>ATLAS Connect team for University of California, Santa Cruz</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of California, Santa Cruz</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n6cai04882ca</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>274</ID>
		<Name>atlas.org.uiowa</Name>
		<Description>ATLAS Connect team for University of Iowa</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Iowa</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2eafckbgu51c</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>275</ID>
		<Name>atlas.org.umass</Name>
		<Description>ATLAS Connect team for University of Massachusetts</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Massachusetts</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/sqj1fi5b7fdj</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>276</ID>
		<Name>atlas.org.unm</Name>
		<Description>ATLAS Connect team for University of New Mexico</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of New Mexico</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/pclpz1bwbpdi</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>277</ID>
		<Name>atlas.org.uoregon</Name>
		<Description>ATLAS Connect team for University of Oregon</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Oregon</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7j4ogzyjflij</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>278</ID>
		<Name>atlas.org.upenn</Name>
		<Description>ATLAS Connect team for University of Pennsylvania</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>279</ID>
		<Name>atlas.org.uta</Name>
		<Description>ATLAS Connect team for University of Texas - Arlington</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Texas at Arlington</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fcm0rnxmtcor</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>280</ID>
		<Name>atlas.org.utdallas</Name>
		<Description>ATLAS Connect Team for University of Texas - Dallas</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Texas at Dallas</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/eouhp4r1y2e2</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>281</ID>
		<Name>atlas.org.utexas</Name>
		<Description>ATLAS Connect team for University of Texas-Austin</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Texas at Austin</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6z0d22dz19io</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>282</ID>
		<Name>atlas.org.washington</Name>
		<Description>ATLAS Connect team for University of Washington</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Washington</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8lpmoeouw66o</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>283</ID>
		<Name>atlas.org.wisc</Name>
		<Description>ATLAS Connect team for University of Wisconsin</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>284</ID>
		<Name>atlas.org.yale</Name>
		<Description>ATLAS Connect team for Yale University</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>Yale University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/np1w2l1semy5</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>285</ID>
		<Name>atlas.wg.B-Physics</Name>
		<Description>ATLAS Connect team for B Physics</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>287</ID>
		<Name>atlas.wg.E-Gamma</Name>
		<Description>ATLAS Connect team for E Gamma</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>242</ID>
		<Name>atlas.wg.Exotics</Name>
		<Description>We study exotics.</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>ATLAS</Organization>
		<Department>ATLAS</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8alpqdbfmj7m</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>288</ID>
		<Name>atlas.wg.Flavour-Tagging</Name>
		<Description>ATLAS Connect team for Flavour Tagging</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>289</ID>
		<Name>atlas.wg.Heavy-Ions</Name>
		<Description>ATLAS Connect team for Heavy Ions</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>290</ID>
		<Name>atlas.wg.Higgs</Name>
		<Description>ATLAS Connect team for Higgs</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>291</ID>
		<Name>atlas.wg.Inner-Tracking</Name>
		<Description>ATLAS Connect team for Inner Tracking</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>293</ID>
		<Name>atlas.wg.Monte-Carlo</Name>
		<Description>ATLAS Connect team for Monte Carlo</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>294</ID>
		<Name>atlas.wg.SUSY</Name>
		<Description>ATLAS Connect team for SUSY</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>295</ID>
		<Name>atlas.wg.Standard-Model</Name>
		<Description>ATLAS Connect team for Standard Model</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>297</ID>
		<Name>atlas.wg.Top</Name>
		<Description>ATLAS Connect team for Top</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>325</ID>
		<Name>atlas.wg.USAtlas-TechSupport</Name>
		<Description>Atlas Connect training project</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>286</ID>
		<Name>atlas.wg.combined-muon</Name>
		<Description>ATLAS Connect team for Combined Muon</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>US ATLAS</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>16</ID>
				<Name>ATLAS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>470</ID>
		<Name>bdttpdblend</Name>
		<Description>We will utilize the Open Science Grid to conduct quantum chemical calculations and kinetic Monte Carlo simulations of organic photovoltaic morphologies. We have a simulation pipeline that enables high throughput material screening for chemistires and processing conditions relevent for organic photovoltaic devices. We will use molecular configurations from previously simulated morphologies, generated with molecular dynamics code accelerated by GPUs.</Description>
		<PIName>Eric Jankowski</PIName>
		<Organization>Boise State University</Organization>
		<Department>Material Science and Engineering</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qqv9wksxyp5i</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>542</ID>
		<Name>bobbot</Name>
		<Description>DEM simulation for compression of active particles.</Description>
		<PIName>Daniel I Goldman</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Biophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>26.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1843044789</ID>
		<Name>bockelman</Name>
		<Description>Group for CHTC staff using bbockelman's Research Drive</Description>
		<PIName>Brian Bockelman</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Computer Sciences</Department>
		<FieldOfScience>Computer Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0701a</FieldOfScienceID>
	</Project>
	<Project>
		<ID>126</ID>
		<Name>boostconf</Name>
		<Description>Project for data sharing and analysis of boosted object physics and jet phenomenology for topics discussed in the BOOST Conference Series</Description>
		<PIName>David Wilkins Miller</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>539</ID>
		<Name>brainlifeio</Name>
		<Description>Neuroscience is engaging at the forefront of science by dissolving disciplinary boundaries and promoting transdisciplinary research. This process can facilitate discovery by convergent efforts from theoretical, experimental and cognitive neuroscience, as well as computer science and engineering.</Description>
		<PIName>Franco Pestilli</PIName>
		<Organization>Indiana University</Organization>
		<Department>Psychological and Brain Sciences</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>510</ID>
		<Name>cellpainting</Name>
		<Description>We aim to pioneer a new era where images of cells become
powerful, rich, unbiased data sources for comparing cell state. We predict that
doing so will allow rapid and inexpensive interrogation of the impact of genetic
or chemical perturbations on a cell - useful for a variety of important
applications in biology.

In morphological profiling, we construct signatures of genes, chemicals, or
other treatments by measuring the structural changes in treated cells, as
observed under a microscope. Cells are stained with fluorescent dyes that mark
several constituents, producing images from which hundreds of distinct
measurements can be extracted at the single cell level. We will carry out
proof-of-principle computational experiments using morphological profiling in
diverse and significant applications, such as connecting unannotated genes to
known pathways, identifying signatures of disease, predicting a small molecule’s
mechanism of action, enriching chemical libraries for diverse bioactivity, and
identifying new compounds or materials with desired phenotypic effects. Despite
our successes in this field so far, the methods development for morphological
profiling is a wild frontier: novel methods are used but not compared,
integration with other data types (such as transcriptomics) has not !
been explored, and deep learning is not yet leveraged to its potential. We will
continue to push forward the technology development needed in our driving
biological projects. We will make data and code publicly available to catalyze
the field. Ultimately, we aim to develop best practices for the field and create
the foundation for user-friendly, open-source tools to discover and quantify
relationships among genetic or chemical perturbations and disease state, across
a diverse array of biological areas of study and disease areas.</Description>
		<PIName>Shantanu Singh</PIName>
		<Organization>Broad Institute</Organization>
		<Department>Imaging Platform</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/e9m0sui7r154</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>149</ID>
		<Name>cgdna</Name>
		<Description>Molecular-level information of DNA at nanometer length scales is of fundamental interest to many aspects of nanotechnology and biology. Molecular models provide a powerful tool to interrogate these systems by providing detailed thermodynamic and kinetic information. Towards this end, this project involves developing highly-accurate coarse-grained models of DNA and using them to study complex nano-scale phenomena.</Description>
		<PIName>Juan J de Pablo</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Institute of Molecular Engineering</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>156</ID>
		<Name>cgl</Name>
		<Description>We use machine learning to look for complex epistatic interactions associated with disease risk. Website: http://www.epistasis.org</Description>
		<PIName>Jason H. Moore</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Biostatistics and Epidemiology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>576</ID>
		<Name>chemml</Name>
		<Description>Data-driven machine learning as surrogates for quantum chemical methods. Data from the project will be made open to improve existing quantum ML methods as well as next generation atomistic force fields.</Description>
		<PIName>Geoffrey Hutchison</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>598</ID>
		<Name>clarkson_mondal</Name>
		<Description>Feature Selection and Prediction of Rheumatoid Arthritis from Comorbidities using Bayesian Logistic Regression</Description>
		<PIName>Sumona Mondal</PIName>
		<Organization>Clarkson University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o2qtl8pbjmss</InstitutionID>
		<FieldOfScienceID>27.01</FieldOfScienceID>
	</Project>
	<Project>
		<ID>714</ID>
		<Name>clas12MC</Name>
		<Description>Jefferson Laboratory Hall-B CLAS12 project</Description>
		<PIName>Maurizio Ungaro</PIName>
		<Organization>Jefferson Lab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hlz41oydapzn</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>227</ID>
		<Name>cms-org-baylor</Name>
		<Description>CMS Connect at Baylor University</Description>
		<PIName>Kenichi Hatakeyama</PIName>
		<Organization>Baylor University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/c8uhtb8bojit</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>373</ID>
		<Name>cms-org-cern</Name>
		<Description>CMS Connect group for CERN</Description>
		<PIName>Achille Petrilli</PIName>
		<Organization>CERN</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Particle Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8alpqdbfmj7m</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>136</ID>
		<Name>cms-org-nd</Name>
		<Description>CMS Connect at Notre Dame</Description>
		<PIName>Kevin Lannon</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>High Energy Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>456</ID>
		<Name>cms.org.baylor</Name>
		<Description>CMS Connect at Baylor University</Description>
		<PIName>Kenichi Hatakeyama</PIName>
		<Organization>Baylor University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/c8uhtb8bojit</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>233</ID>
		<Name>cms.org.brown</Name>
		<Description>CMS Connect at Brown University</Description>
		<PIName>Meenakshi Narain</PIName>
		<Organization>Brown University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0ytxfy0n4hol</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>216</ID>
		<Name>cms.org.bu</Name>
		<Description>CMS Connect at Boston University</Description>
		<PIName>Jim Rohlf</PIName>
		<Organization>Boston University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/drujeuinri1g</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>238</ID>
		<Name>cms.org.buffalo</Name>
		<Description>CMS Connect at State University of New York at Buffalo</Description>
		<PIName>Avto Kharchilava</PIName>
		<Organization>State University of New York at Buffalo</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/1cze98vy4hfm</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>197</ID>
		<Name>cms.org.caltech</Name>
		<Description>CMS Connect at Caltech</Description>
		<PIName>Harvey Newman</PIName>
		<Organization>Caltech</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/m9rrh8ld1wyh</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>453</ID>
		<Name>cms.org.cern</Name>
		<Description>CMS Connect group for CERN</Description>
		<PIName>Achille Petrilli</PIName>
		<Organization>CERN</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Particle Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8alpqdbfmj7m</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>234</ID>
		<Name>cms.org.cmu</Name>
		<Description>CMS Connect at Carnegie-Mellon University</Description>
		<PIName>Manfred Paulini</PIName>
		<Organization>Carnegie-Mellon University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3cqqrc2cgibl</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>144</ID>
		<Name>cms.org.colorado</Name>
		<Description>CMS Connect project for University of Colorado</Description>
		<PIName>Douglas Johnson</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>224</ID>
		<Name>cms.org.cornell</Name>
		<Description>CMS Connect at Cornell University</Description>
		<PIName>Jim Alexander</PIName>
		<Organization>Cornell University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0lcrhlbjpu9r</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>203</ID>
		<Name>cms.org.fairfield</Name>
		<Description>CMS Connect at Fairfield</Description>
		<PIName>Dave Winn</PIName>
		<Organization>Fairfield</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/j7cdzoql3356</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>204</ID>
		<Name>cms.org.fit</Name>
		<Description>CMS Connect at Florida Institute of Technology</Description>
		<PIName>Marc Baarmand</PIName>
		<Organization>Florida Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o4qs4gpcylcj</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>205</ID>
		<Name>cms.org.fiu</Name>
		<Description>CMS Connect at Florida International University</Description>
		<PIName>Pete Markowitz</PIName>
		<Organization>Florida International University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gyqnlof5dslq</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>143</ID>
		<Name>cms.org.fnal</Name>
		<Description>CMS Connect group for FNAL</Description>
		<PIName>Lothar Bauerdick</PIName>
		<Organization>Fermilab</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>206</ID>
		<Name>cms.org.fsu</Name>
		<Description>CMS Connect at Florida State University</Description>
		<PIName>Todd Adams</PIName>
		<Organization>Florida State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>214</ID>
		<Name>cms.org.jhu</Name>
		<Description>CMS Connect at Johns Hopkins University</Description>
		<PIName>Morris Swartz</PIName>
		<Organization>Johns Hopkins University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3fml5tx2uhe0</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>212</ID>
		<Name>cms.org.ksu</Name>
		<Description>CMS Connect at Kansas State University</Description>
		<PIName>Yurii Maravin</PIName>
		<Organization>Kansas State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/kxvagjjgn71t</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>213</ID>
		<Name>cms.org.ku</Name>
		<Description>CMS Connect at The University of Kansas</Description>
		<PIName>Alice Bean</PIName>
		<Organization>The University of Kansas</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3dxfebv9ibby</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>198</ID>
		<Name>cms.org.llnl</Name>
		<Description>CMS Connect at Lawrence Livermore National Laboratory</Description>
		<PIName>Doug Wright</PIName>
		<Organization>Lawrence Livermore National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/p4yzz1wxq2g3</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>217</ID>
		<Name>cms.org.mit</Name>
		<Description>CMS Connect at Massachusetts Institute of Technology</Description>
		<PIName>Christoph Paus</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>454</ID>
		<Name>cms.org.nd</Name>
		<Description>CMS Connect at Notre Dame</Description>
		<PIName>Kevin Lannon</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>High Energy Physics</Department>
		<FieldOfScience>Particle Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>218</ID>
		<Name>cms.org.neu</Name>
		<Description>CMS Connect at Northeastern University</Description>
		<PIName>Emanuela Barbaris</PIName>
		<Organization>Northeastern University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/454t2lfhcfpp</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>208</ID>
		<Name>cms.org.northwestern</Name>
		<Description>CMS Connect at Northwestern University</Description>
		<PIName>Mayda Velasco</PIName>
		<Organization>Northwestern University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/5vvknn2bzgvt</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>235</ID>
		<Name>cms.org.ohiostate</Name>
		<Description>CMS connect at Ohio State University</Description>
		<PIName>Stan Durkin</PIName>
		<Organization>Ohio State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/984ms2rzh7do</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>221</ID>
		<Name>cms.org.olemiss</Name>
		<Description>CMS Connect at University of Mississipi</Description>
		<PIName>Lucien Cremaldi</PIName>
		<Organization>University of Mississipi</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/bigpgrrmxblz</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>222</ID>
		<Name>cms.org.princeton</Name>
		<Description>CMS Connect at Princeton University</Description>
		<PIName>Dan Marlow</PIName>
		<Organization>Princeton University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ao845i5pul3m</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>209</ID>
		<Name>cms.org.purdue</Name>
		<Description>CMS Connect at Purdue University</Description>
		<PIName>Norbert Neumeister</PIName>
		<Organization>Purdue University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/y2m2tk3a8pp6</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>210</ID>
		<Name>cms.org.purduecal</Name>
		<Description>CMS Connect at Purdue University Calumet</Description>
		<PIName>Neeti Parashar</PIName>
		<Organization>Purdue University Calumet</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hwghxctrdgzw</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>228</ID>
		<Name>cms.org.rice</Name>
		<Description>CMS Connect at Rice University</Description>
		<PIName>Jay Roberts</PIName>
		<Organization>Rice University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mqyva49x2em4</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>237</ID>
		<Name>cms.org.rochester</Name>
		<Description>CMS Connect at University of Rochester</Description>
		<PIName>Regina Demina</PIName>
		<Organization>University of Rochester</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v3s5cj6tgrvz</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>225</ID>
		<Name>cms.org.rockefeller</Name>
		<Description>CMS Connect at Rockefeller University</Description>
		<PIName>Dino Goulianos</PIName>
		<Organization>Rockefeller University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/aqxl1a73eq99</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>223</ID>
		<Name>cms.org.rutgers</Name>
		<Description>CMS Connect at Rutgers University</Description>
		<PIName>Amit Lath</PIName>
		<Organization>Rutgers, The State University of New Jersey</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qrem5k97ikiv</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>229</ID>
		<Name>cms.org.tamu</Name>
		<Description>CMS Connect at Texas A&amp;M University</Description>
		<PIName>Alexei Safonov</PIName>
		<Organization>Texas A&amp;M University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/8wqbbz4i2cma</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>230</ID>
		<Name>cms.org.ttu</Name>
		<Description>CMS Connect at Texas Tech University</Description>
		<PIName>Nural Akchurin</PIName>
		<Organization>Texas Tech University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/dm49jc7i86zx</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>196</ID>
		<Name>cms.org.ua</Name>
		<Description>CMS Connect at University of Alabama</Description>
		<PIName>Conor Henderson</PIName>
		<Organization>University of Alabama</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h3mnbxmdwx24</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>199</ID>
		<Name>cms.org.ucdavis</Name>
		<Description>CMS Connect at University of California, Davis</Description>
		<PIName>John Conway</PIName>
		<Organization>University of California, Davis</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/f62wuiqfjmxm</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>200</ID>
		<Name>cms.org.ucla</Name>
		<Description>CMS Connect at Universify of California, Los Angeles</Description>
		<PIName>Jay Hauser</PIName>
		<Organization>University of California, Los Angeles</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4vhk41w4vvn6</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>201</ID>
		<Name>cms.org.ucr</Name>
		<Description>CMS Connect at University of California, Riverside</Description>
		<PIName>Gail Hanson</PIName>
		<Organization>University of California, Riverside</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zy99b9jjoqpb</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>202</ID>
		<Name>cms.org.ucsb</Name>
		<Description>CMS Connect at University of California, Santa Barbara</Description>
		<PIName>Joe Incandela</PIName>
		<Organization>University of California, Santa Barbara</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rglo22hiw2ge</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>141</ID>
		<Name>cms.org.ucsd</Name>
		<Description>CMS Connect group for UCSD</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>207</ID>
		<Name>cms.org.ufl</Name>
		<Description>CMS Connect at University of Florida</Description>
		<PIName>Gena Mitselmakher</PIName>
		<Organization>University of Florida</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/84k5udeuw65m</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>232</ID>
		<Name>cms.org.uic</Name>
		<Description>CMS Connect at University of Illinois at Chicago</Description>
		<PIName>Nikos Varelas</PIName>
		<Organization>University of Illinois Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/y691qclum4cv</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>211</ID>
		<Name>cms.org.uiowa</Name>
		<Description>CMS Connect at University of Iowa</Description>
		<PIName>Yasar Onel</PIName>
		<Organization>University of Iowa</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2eafckbgu51c</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>215</ID>
		<Name>cms.org.umd</Name>
		<Description>CMS Connect at University of Maryland</Description>
		<PIName>Andris Skuja</PIName>
		<Organization>University of Maryland</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h5syhdikri9a</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>220</ID>
		<Name>cms.org.umn</Name>
		<Description>CMS Connect at University of Minnesota</Description>
		<PIName>Roger Rusack</PIName>
		<Organization>University of Minnesota</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3chofmlz7p5r</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>142</ID>
		<Name>cms.org.unl</Name>
		<Description>CMS Connect group for UNL</Description>
		<PIName>Kenneth Bloom</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>236</ID>
		<Name>cms.org.upr</Name>
		<Description>CMS Connect at University of Puerto Rico</Description>
		<PIName>Malik Sudhir</PIName>
		<Organization>University of Puerto Rico</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/43gwnkrodhv9</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>226</ID>
		<Name>cms.org.utk</Name>
		<Description>CMS Connect at University of Tennessee</Description>
		<PIName>Stefan Spanier</PIName>
		<Organization>University of Tennessee</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/hp8930spi37u</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>239</ID>
		<Name>cms.org.vanderbilt</Name>
		<Description>CMS Connect at Vanderbilt University</Description>
		<PIName>Will Johns</PIName>
		<Organization>Vanderbilt University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7bgts07ydpxp</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>231</ID>
		<Name>cms.org.virginia</Name>
		<Description>CMS Connect at University of Virginia</Description>
		<PIName>Brad Cox</PIName>
		<Organization>University of Virginia</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/qr5lr81ioeu4</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>219</ID>
		<Name>cms.org.wayne</Name>
		<Description>Wayne State University</Description>
		<PIName>Paul Karchin</PIName>
		<Organization>Wayne State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/d54pf46v5aqz</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>240</ID>
		<Name>cms.org.wisc</Name>
		<Description>CMS Connect at University of Wisconsin</Description>
		<PIName>Wesley Smith</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>18</ID>
				<Name>CMS Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>429</ID>
		<Name>colorcat</Name>
		<Description>Different languages divide the visible light spectrum into words (e.g. "red," "green," "blue" ... in English) in different ways. However, despite the apparent freedom in assigning colors to different categories, there are clear universal patterns across languages in how they divide color space according to the number of color terms in the language. This pattern has now been empirically well established, however there remains a confusion of theories for why this pattern should exist at all. In fact, a simple, evolutionary model in tandem with a model of perceptual color space and color saliency, completely accounts for the observed universal patterns. We will use the open science grid to explore the parameter space of this model via many parallel, independent runs of the dynamics to find the best fit parameter values to the language data available.</Description>
		<PIName>Joshua B. Plotkin</PIName>
		<Organization>University of Pennsylvania</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nv2rjrft01gg</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>101</ID>
		<Name>compcomb</Name>
		<Description>Computational Combinatorics uses significant computational resources to solve problems in combinatorics, graph theory, and discrete mathematics.</Description>
		<PIName>Derrick Stolee</PIName>
		<Organization>Iowa State University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>67</ID>
				<Name>HCC</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/wbwnw037cybm</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>505</ID>
		<Name>cyverse</Name>
		<Description>CyVerse is a cyberinfrastructure project (formerly iPlant Collaborative). This project will be an umbrella for initial testing of OSG integration, with the hope that eventually we will instead ask users for their own projects to submit with jobs.</Description>
		<PIName>Nirav Merchant</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>94</ID>
		<Name>dVdT</Name>
		<Description>The main goal of the project is to design a computational framework that enables computational experimentation at scale while supporting the model of “submit locally, compute globally”. The project focuses on estimating application resource needs, finding the appropriate computing resources, acquiring those resources, deploying the applications and data on the resources, managing applications and resources during run. The project also aims to advance the understanding of resource management within a collaboration in the areas of: trust, planning for resource provisioning, and workload, computer, data, and network resource management.</Description>
		<PIName>Ewa Deelman</PIName>
		<Organization>University of Southern California</Organization>
		<Department>Information Sciences Institute</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>485</ID>
		<Name>darkside</Name>
		<Description>Project entry for the Darkside VO. http://darkside.lngs.infn.it/</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Darkside</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>103</ID>
				<Name>Darkside</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mktiwfxf07og</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>415</ID>
		<Name>ddpscbioinfo</Name>
		<Description>The Donald Danforth Plant Science Center Bioinformatics project tracks Open Science Grid computing usage by Danforth Center researchers. Bioinformatics research at the Danforth Center largely focuses on plant genomics (genome sequencing, genetic analysis, transcript profiling, etc.) and high-throughput phenotyping (image analysis, genotype-phenotype association analysis, etc.).</Description>
		<PIName>Noah Fahlgren</PIName>
		<Organization>Donald Danforth Plant Science Center</Organization>
		<Department>Bioinformatics</Department>
		<FieldOfScience>Plant Biology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rsgxpux8bm0h</InstitutionID>
		<FieldOfScienceID>26.03</FieldOfScienceID>
	</Project>
	<Project>
		<ID>58</ID>
		<Name>duke-4fermion</Name>
		<Description>We are performing a lattice field theory calculation of a 2 flavor fermion model with a four fermion interaction. We look for critical behavior at strong coupling.</Description>
		<PIName>Shailesh Chandrasekharan</PIName>
		<Organization>Duke University</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>352</ID>
		<Name>duke-CMT</Name>
		<Description>We are condensed-matter theorists at Duke. We study the onset of strong correlation in various setups, such as qubits coupled to a 1D waveguide and impurities immersed in an electromagnetic environment. With the aid of the OSG distributive environment, we are able to solve problems using a variety of numerical approaches, including but not limited to quantum Monte Carlo, quantum jumps, etc.</Description>
		<PIName>Harold U. Baranger</PIName>
		<Organization>Duke University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>390</ID>
		<Name>duke-EfficientScore</Name>
		<Description>We will benchmark various algorithms to benchmark the efficient score.</Description>
		<PIName>Konosuke Iwamoto</PIName>
		<Organization>Duke University</Organization>
		<Department>Biostatistics</Department>
		<FieldOfScience>Statistics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>27.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>308</ID>
		<Name>duke-SWC-Duke15</Name>
		<Description>Training Workshop</Description>
		<PIName>Mark R. DeLong</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>109</ID>
		<Name>duke-WaterCrystal</Name>
		<Description>Water structure in protein crystals</Description>
		<PIName>Patrick Charbonneau</PIName>
		<Organization>Duke University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Biochemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>26.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>380</ID>
		<Name>duke-bgswgs</Name>
		<Description>To study the genomic and genetic aspects of brainstem gliomas</Description>
		<PIName>Hai Yan</PIName>
		<Organization>Duke University</Organization>
		<Department>Pathology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>318</ID>
		<Name>duke-boolnet</Name>
		<Description>Experimental Boolean networks built on FPGAs, with the purpose of studying the fundamental dynamical properties of complex</Description>
		<PIName>Daniel Gauthier</PIName>
		<Organization>Duke University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>60</ID>
		<Name>duke-campus</Name>
		<Description>Default project for new Duke users</Description>
		<PIName>Tom Milledge</PIName>
		<Organization>Duke University</Organization>
		<Department>Scalable Computing Suport Center-OIT</Department>
		<FieldOfScience>Community Grid</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>391</ID>
		<Name>duke-staff</Name>
		<Description>campus project</Description>
		<PIName>Tom Milledge</PIName>
		<Organization>Duke University</Organization>
		<Department>IT</Department>
		<FieldOfScience>Community Grid</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>30.3001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>190</ID>
		<Name>duke-swcstaff</Name>
		<Description>Duke Software Carpentry Workshop from Oct 27th to Oct 29th 2015
http://swc-osg-workshop.github.io/2015-10-27-duke/index.html</Description>
		<PIName>Mark R. DeLong</PIName>
		<Organization>Duke University</Organization>
		<Department>Office of Information Technology</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>681</ID>
		<Name>duke.lsst</Name>
		<Description>Large Synoptic Survey Telescope at Duke</Description>
		<PIName>Steven Kahn</PIName>
		<Organization>Duke University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>678</ID>
		<Name>duke.ppsa</Name>
		<Description>Theoretical underpinnings of macromolecular crystalization</Description>
		<PIName>Irem Altan</PIName>
		<Organization>Duke University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>496</ID>
		<Name>dynamo</Name>
		<Description>Equilibrium dynamical models are useful tools for inferring the mass distribution of galaxies and determining the amount and structure of their dark matter halos. The goal of this work is to explore degeneracies in the modeling of elliptical galaxies to evaluate how well we can understand properties such as their dark matter density distribution, the mass-to-light ratio of their stellar populations, and the orbital anisotropy of various tracer populations.</Description>
		<PIName>Asher Wasserman</PIName>
		<Organization>University of California, Santa Cruz</Organization>
		<Department>Astronomy and Astrophysics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/n6cai04882ca</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1677287435</ID>
		<Name>ePIC</Name>
		<Description>the ePIC collaboration based out of the EIC</Description>
		<PIName>John Lajoie</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>139</ID>
				<Name>EIC</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>531</ID>
		<Name>eht</Name>
		<Description>The Event Horizon Telescope (EHT) is an international collaboration aiming to capture the first image of a black hole by creating a virtual Earth-sized telescope.</Description>
		<PIName>Chi-Kwan Chan</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>422</ID>
		<Name>electrolytes</Name>
		<Description>Molecular Dynamics simulations of concentrated electrolyte mixtures both in bulk and at interfaces, and spectroscopic characterization of these systems. Electronic Structure calculations used to investigate specific interactions between liquid components</Description>
		<PIName>Jesse McDaniel</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Chemistry and Biochemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>125</ID>
		<Name>errorstudy</Name>
		<Description>Missing data and genotyping errors are common features of microsatellite data sets used to infer the genetic structure of natural populations.  We used simulated data to quantify the effect of these data aberrations on the accuracy of population structure inference.  Data sets were simulated under the coalescent and ranged from panmictic to highly subdivided with complex, randomly generated, population histories.  Models describing the characteristic patterns of missing data and genotyping error in real microsatellite data sets were developed, and used to modify the simulated data sets.  Performance of an ordination, a tree based, and a model based Bayesian method of population structure inference was evaluated before and after data set modifications.  The ability to recover correct population clusters decreased as missing data increased.  The rate of decrease was similar among analytical procedures, thus no single analytical approach was preferable when
 faced with incomplete data.  Researchers should expect to retrieve 3–4% fewer correct clusters for every 1% of a data matrix made up of missing data using these methods.  For every 1% of a matrix that contained erroneous genotypes, approximately 1–2% fewer correct clusters were recovered using ordination and tree based methods.  A Bayesian procedure that minimizes the deviation from Hardy Weinberg equilibrium in order to assign individuals to clusters performed better as genotyping error increased.  We attribute this surprising result to the inbreeding like nature of microsatellite genotyping error, and recommend the use of related analytical methods that explicitly account for inbreeding, as a means to mitigate the effect of genotyping error.</Description>
		<PIName>Christopher Richards</PIName>
		<Organization>USDA Agricultural Research Service</Organization>
		<Department>National Center for Genetic Resources Preservation</Department>
		<FieldOfScience>Molecular and Structural Biosciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/04zshkcip94w</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>404</ID>
		<Name>evolmarinva</Name>
		<Description>Our group uses genomic tools to understand the evolutionary process of marine invasions.</Description>
		<PIName>Erik Sotka</PIName>
		<Organization>College of Charleston</Organization>
		<Department>Department of Biology</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/feign8xjq7s1</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>441</ID>
		<Name>extinction</Name>
		<Description>Population dynamics simulations in R and Python will be used to understand how increasing environmental variability due to climate change and habitat degradation interact and affect a species' time to extinction.</Description>
		<PIName>Shripad Tuljapurkar</PIName>
		<Organization>Stanford University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Ecological and Environmental Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>326</ID>
		<Name>fluidsim</Name>
		<Description>In this project we study fluid/structure interactions using a novel particle-based fluid simulation technique.</Description>
		<PIName>Erkan Tuzel</PIName>
		<Organization>Worcester Polytechnic Institute</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ndhm574vy927</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>245</ID>
		<Name>freesurfer</Name>
		<Description>Brain image analysis with free surfer software</Description>
		<PIName>Donald Krieger</PIName>
		<Organization>University of Pittsburgh</Organization>
		<Department>Department of Neurological Surgery</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2ayx10b74xua</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>575</ID>
		<Name>fsuFin</Name>
		<Description>Financial market optimizer machines and option prediction</Description>
		<PIName>François Cocquemas</PIName>
		<Organization>Florida State University</Organization>
		<Department>Business</Department>
		<FieldOfScience>Finance</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>52</FieldOfScienceID>
	</Project>
	<Project>
		<ID>434</ID>
		<Name>g4PSI</Name>
		<Description>MUSE is an experiment to measure the proton radius using muon and electron scattering. I work on simulations of the experiment using GEANT4, a particle physics simulation toolkit.</Description>
		<PIName>Wolfgang Lorenzon</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>140</ID>
		<Name>gem5</Name>
		<Description>The work is looking into microarchitectural details utilizing gem5 to do cycle-accurate simulation of an O3 processor. The work additionally uses McPAT and Hotspot to flush out the research framework.</Description>
		<PIName>Dean Tullsen</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Computer Science and Engineering</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>448</ID>
		<Name>glass</Name>
		<Description>Glass problem is one of the outstanding unsolved problems in condensed matter physics. The exact solution of a model glass former in the limit of infinite spatial dimension exhibit a dynamical critical point. It is important to check the robustness of the resulting description under changing d for fundamental understanding. In this project we aim to take a closer look at this dynamical criticality as a function of spatial dimensions, using models of polydisperse hard sphere fluids. Computer simulation is an essential tool to pursue this study.</Description>
		<PIName>Patrick Charbonneau</PIName>
		<Organization>Duke University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>15</ID>
				<Name>Duke</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>490</ID>
		<Name>gm2</Name>
		<Description>Project entry corresponding to the gm2 VO (Muon g-2 at Fermilab).</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>53</ID>
		<Name>gridsgenomes</Name>
		<Description>The use of methylation-specific restriction enzymes to preferentially cleave 5'-CCGG-3' sites in conjunction with Next Generation Sequencing platforms has formed the basis for the widely used Methyl-seq and HELP-tagging assays. The recent development of an R package using a Bayesian hierarchical model approach, msBayes, offered a statistically rigorous alternative to the basic tag-counting/geometric mapping previously used for these two techniques. Its dependence on the WinBUGS package however, severely limited its performance and usage by the community. We have re-implemented msBayes to make use of both OpenBUGS and OpenMP, and have integrated this new core module, msBayes2.0, into a web-based platform and subsequent deployment and processing on a diversity of computing platforms.</Description>
		<PIName>David Rhee</PIName>
		<Organization>Albert Einstein College of Medicine</Organization>
		<Department>Genetics</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/yzcm7hs9f1d0</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>300</ID>
		<Name>hABCNWHI</Name>
		<Description>Hierarchical Approximate Bayesian Computation to Detect Community Response to Sea Level Change in the Hawaiian Archipelago. 

Methods that integrate population sampling from multiple taxa into a single analysis are a much needed addition to the comparative phylogeographic toolkit. Here we present a statistical framework for multi-species analysis based on hierarchical approximate Bayesian computation (hABC) for inferring community dynamics and concerted demographic response. Detecting community response to climate change is an important issue with regards to how species have and will react to past and future events. Furthermore, whether species responded individualistically or in concert is at the center of related questions about the abiotic and biotic determinants of community assembly. This method combines multi-taxon genetic datasets into a single analysis to determine the proportion of a contemporary community that historically expanded in a temporally clustered pulse as well as when the pulse occurred. We will apply this method to 59 species in the Hawaiian Archip ela! go in order to examine community response of coral reef taxa to sea-level change in Hawaii. The method can accommodate dataset heterogeneity such as variability in effective population size, mutation rates, and sample sizes across species and utilizes borrowing strength from the simultaneous analysis of multiple species. This hABC framework used in a multi-taxa demographic context can increase our understanding of the impact of historical climate change by determining what proportion of the community responded in concert or independently, and can be used with a wide variety of comparative phylogeographic datasets as biota-wide DNA barcoding data sets accumulate.</Description>
		<PIName>Yvonne Chan</PIName>
		<Organization>Iolani School</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7a8v0ry5p83u</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>384</ID>
		<Name>holosim</Name>
		<Description>simulations of population genetics in 2d landscapes</Description>
		<PIName>Allan Strand</PIName>
		<Organization>College of Charleston</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/feign8xjq7s1</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>679</ID>
		<Name>icarus</Name>
		<Description>ICARUS, the worlds' first large liquid-argon neutrino detector</Description>
		<PIName>Carlo Rubbia</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>366</ID>
		<Name>idTrackerParallel</Name>
		<Description>Running the idTracker software (http://www.idtracker.es/) in parallel on OSG.</Description>
		<PIName>Andrew Ruether</PIName>
		<Organization>Swarthmore College</Organization>
		<Department>ITS</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/a9u068qpwh85</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1493706814</ID>
		<Name>jmkidney</Name>
		<Description>Legacy Project. For current usage, see CUAnschutz_JuarezColunga</Description>
		<PIName>Elizabeth Juarez Colunga</PIName>
		<Organization>University of Colorado Anschutz Medical Campus</Organization>
		<Department>Biostatistics and Informatics</Department>
		<FieldOfScience>Biostatistics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ca3jfb3f8sv3</InstitutionID>
		<FieldOfScienceID>26.1102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>370</ID>
		<Name>lftsim</Name>
		<Description>We are simulating quantum field theory and many particle systems using lattice field theory techniques. Although some of our work involves lattice QCD, much of it does not. It encompasses supersymmetric systems and phase transitions in nonrelativisting systems.</Description>
		<PIName>Joel Giedt</PIName>
		<Organization>Rensselaer Polytechnic Institute</Organization>
		<Department>Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/z9jynyyvt051</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>468</ID>
		<Name>lychrelsearch</Name>
		<Description>This project will search for and perform limited verification of potential Lychrel numbers. A Lychrel number is a natural number that through reversing its digits and adding them together, repeatedly, does not form a palindrome.</Description>
		<PIName>James P. Howard, II</PIName>
		<Organization>Johns Hopkins University</Organization>
		<Department>Mathematics</Department>
		<FieldOfScience>Mathematical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/3fml5tx2uhe0</InstitutionID>
		<FieldOfScienceID>27</FieldOfScienceID>
	</Project>
	<Project>
		<ID>185</ID>
		<Name>mab</Name>
		<Description>Developing new policies for the (classical) Multi-Armed Bandit problem.</Description>
		<PIName>Vivek Farias</PIName>
		<Organization>Massachusetts Institute of Technology</Organization>
		<Department>Sloan School of Management</Department>
		<FieldOfScience>Information Theory</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/jtlq7k0qkxtn</InstitutionID>
		<FieldOfScienceID>52</FieldOfScienceID>
	</Project>
	<Project>
		<ID>401</ID>
		<Name>macsSwigmodels</Name>
		<Description>Every individual’s genome carries within it the history of all the ancestors of that individual. Thus, by analyzing a small number of genomes, we can accurately infer the demographic history of entire human populations. This demographic history helps establish a baseline that is needed for research and discovery in medical genomics. 
We are using a process to more accurately infer the demographic history of human populations by comparing genomic statistics from millions of genome simulations to real population genomic data. While other researchers have worked with this process using only a few individuals or a portion of a chromosome, we are pushing the limit of computing capabilities by simulating whole chromosomes of hundreds of individuals. Using the whole chromosome allows us to look at more recent demographic history, which is particularly helpful in finding genetic links to disease processes. After publication, we will make our pipeline available so other researchers can apply it to other populations. 
This project pushes the frontier of genomic research in that it uses new methods, simulates a larger part of the genome, and is being applied to populations not yet thoroughly studied.</Description>
		<PIName>Ariella Gladstein</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Ecology and Evolutionary Biology</Department>
		<FieldOfScience>Evolutionary Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>26.13</FieldOfScienceID>
	</Project>
	<Project>
		<ID>500</ID>
		<Name>mars</Name>
		<Description>Dummy project corresponding to the mars VO.</Description>
		<PIName>Lisa Goodenough</PIName>
		<Organization>Fermilab</Organization>
		<Department>N/A</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>9</ID>
				<Name>Fermilab</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ik4s3ql8u1j7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>121</ID>
		<Name>megaprobe</Name>
		<Description>high performance sequence analysis</Description>
		<PIName>Humberto Ortiz-Zuazaga</PIName>
		<Organization>University of Puerto Rico</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/43gwnkrodhv9</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>244</ID>
		<Name>microphases</Name>
		<Description>Periodic microphases universally emerge in systems for which short-range inter-particle attraction is frustrated by long-range repulsion. The morphological richness of these phases makes them desirable material targets, but our relatively coarse understanding of even simple models limits our grasp of their assembly. The OSG computing resources will enable us to explore more solutions of the equilibrium phase behavior of a family of similar microscopic microphase formers through specialized Monte Carlo simulations.</Description>
		<PIName>Patrick Charbonneau</PIName>
		<Organization>Duke University</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/v0pbd5jfz81s</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>375</ID>
		<Name>molcryst</Name>
		<Description>Quantum chemical and machine learning insights into supra-molecular organization of molecular crystals.</Description>
		<PIName>Olexandr Isayev</PIName>
		<Organization>University of North Carolina at Chapel Hill</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nhz3r9d0308l</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>444</ID>
		<Name>mortality</Name>
		<Description>his project is about the mortality of developed countries in Human Fertility Database.</Description>
		<PIName>Shripad Tuljapurkar</PIName>
		<Organization>Stanford University</Organization>
		<Department>Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/keucrg5vtwtm</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>777</ID>
		<Name>mwt2-staff</Name>
		<Description>MWT2 staff - testing and monitoring</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>11.0701b</FieldOfScienceID>
	</Project>
	<Project>
		<ID>431</ID>
		<Name>nEXO</Name>
		<Description>The nEXO experiment aims to search for double
beta decay of Xenon-136.</Description>
		<PIName>Raymond Tsang</PIName>
		<Organization>Pacific Northwest National Laboratory</Organization>
		<Department>National Security Directorate</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/lh31n2nsjoyt</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>388774045</ID>
		<Name>nanoHUB</Name>
		<Description>nanoHUB.org is the premier place for computational nanotechnology research, education, and collaboration</Description>
		<PIName>Gerhard Klimeck</PIName>
		<Organization>Purdue University West Lafayette</Organization>
		<Department>The Network for Computational Nanotechnology</Department>
		<FieldOfScience>Nanoelectronics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/y2m2tk3a8pp6</InstitutionID>
		<FieldOfScienceID>15.1601</FieldOfScienceID>
	</Project>
	<Project>
		<ID>182</ID>
		<Name>ncidft</Name>
		<Description>Project Description: Density-Functional Theory (DFT) is the most successful method for the computation of quantum mechanical properties in molecules and solids. The aim of our project is to advance the DFT field by extending and improving the existing methods for modeling non-covalent interactions. Computational tasks for this project include DFT calculations on small molecules as well as periodic solids, and the use of home-made programs that implement our methodologies.</Description>
		<PIName>Alberto Otero de la Roza</PIName>
		<Organization>National Research Council of Canada</Organization>
		<Department>National Institute for Nanotechnology</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/nklmjlvthcfn</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>497</ID>
		<Name>networkdist</Name>
		<Description>Measuring driving and walking times for very large matrices of points.</Description>
		<PIName>James Saxon</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Harris School of Public Policy</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>378</ID>
		<Name>nicesims</Name>
		<Description>The Nice Model, is an evolutionary model for the outer Solar System which has explained many puzzling observed qualities of the Solar System. As the newly formed planets cleared debris from the young Solar System, Saturn, Uranus, and Neptune tended to scatter objects inward, while Jupiter ejected these planetesimals out of the Solar System. To conserve angular momentum through this process, Jupiter slowly migrates inward while the other giant planets move outward. When Jupiter and Saturn cross a period of orbital resonance, the entire Solar System experiences a massive instability. We will run simulations to probe the affect of such an instability on an evolving system of inner planets.</Description>
		<PIName>Nathan Kaib</PIName>
		<Organization>University of Oklahoma</Organization>
		<Department>Physics and Astronomy</Department>
		<FieldOfScience>Physics and astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xvsrc4eixk2g</InstitutionID>
		<FieldOfScienceID>40.1101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>527</ID>
		<Name>nnmbl</Name>
		<Description>I will be using techniques in machine learning and AI to better characterize the transition between the many-body localized and ergodic phases of the random field Heisenberg spin chain. Numerically, this will involve generating many disorder realizations of this model and calculating their spectra, and analyzing the resulting data using neural nets.</Description>
		<PIName>Ahmed Akhtar</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>416</ID>
		<Name>nsides</Name>
		<Description>Using deep learning models to discover statistically significant drug effects using public drug surveillance datasets from the Federal Drug Administration.</Description>
		<PIName>Nicholas Tatonetti</PIName>
		<Organization>Columbia University</Organization>
		<Department>Biomedical Informatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>173</ID>
		<Name>numfpi</Name>
		<Description>We are developing a implementation of a Monte Carlo volume rendering method. The primary purpose is to impro
ve the calculation of multiple scattering physics, with possible applications in computer graphics, nuclear physics, and remote s
ensing. The project involves the numerical calculation of a Feynman path integral, which is what most of the computation is devot
ed to, and the primary need for high throughput computing methods.</Description>
		<PIName>Jerry Tessendorf</PIName>
		<Organization>Clemson University</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>171</ID>
		<Name>oclab</Name>
		<Description>Immunology at OConner's lab</Description>
		<PIName>Dave OConnor</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>School of Medical and Public Health</Department>
		<FieldOfScience>Medical Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26</FieldOfScienceID>
	</Project>
	<Project>
		<ID>587</ID>
		<Name>osg.Ceser</Name>
		<Description>Infrastructure Testing</Description>
		<PIName>Frank Wuerthwein</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Multidisciplinary</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>471</ID>
		<Name>panorama</Name>
		<Description>Performance Data Capture and Analysis for End-to-end Scientific Workflows</Description>
		<PIName>Georgios Papadimitriou</PIName>
		<Organization>University of Southern California</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>181</ID>
		<Name>peers</Name>
		<Description>This is an analysis of statewide data for all students in grades K-2. The aim of the analysis is to examine the effects of peers' achievement and composition effects on individual student achievement. This analysis requires mixed-effect modeling and quantile regression. R, and qrLMM package, will be used for analysis, 19 instances of analysis (one for each quantile .05 to .95 in .05 increments) will be conducted for each grade (k, 1, and 2). Each data set is less than 1GB, but requires approximately 6gb to run.</Description>
		<PIName>Jessica Sidler Folsom</PIName>
		<Organization>Florida State University</Organization>
		<Department>Florida Center for Reading Research</Department>
		<FieldOfScience>Ecological and Environmental Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>13.0901</FieldOfScienceID>
	</Project>
	<Project>
		<ID>243</ID>
		<Name>pipediffusion</Name>
		<Description>A molecular dynamics study (LAMMPS) of diffusion along the core of a screw dislocation is to be studied.</Description>
		<PIName>Panthea Sepehrband</PIName>
		<Organization>Santa Clara University</Organization>
		<Department>Mechanical</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/2vxlc7g64qpj</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>498</ID>
		<Name>plantGRN</Name>
		<Description>With the emergence of massively parallel sequencing, genome-wide expression data production has reached an unprecedented level. This abundance of data has greatly facilitated maize research, but may not be amenable to traditional analysis techniques that were optimized for other data types. Using publicly available data, a Gene Co-expression Network (GCN) can be constructed and used for gene function prediction, candidate gene selection and improving understanding of regulatory pathways. Several GCN studies have been done in maize, mostly using microarray datasets. To build an optimal GCN from plant materials RNA-Seq data, parameters for expression data normalization and network inference were evaluated. We previously constructed an optimized gene coexpression network for maize. In this project, we want to build gene regulatory networks for Arabidopsis, rice maize, and sorghum.</Description>
		<PIName>Karen McGinnis</PIName>
		<Organization>Florida State University</Organization>
		<Department>Biological Science</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/0yddmgnh2xl5</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>316</ID>
		<Name>polyHERV</Name>
		<Description>Fine-mapping of human endogenous retrovirus polymorphisms</Description>
		<PIName>Gkikas Magiorkinis</PIName>
		<Organization>University of Oxford</Organization>
		<Department>Zoology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/rs6jusb08ogc</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>507</ID>
		<Name>polymer</Name>
		<Description>Investigate the thermal conductivity of polymer and polymer
composites using MD simulation</Description>
		<PIName>rajmohan muthaiah</PIName>
		<Organization>University of Oklahoma</Organization>
		<Department>Mechanical Engineering</Department>
		<FieldOfScience>Materials Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/xvsrc4eixk2g</InstitutionID>
		<FieldOfScienceID>40.1001</FieldOfScienceID>
	</Project>
	<Project>
		<ID>469</ID>
		<Name>popage</Name>
		<Description>Using FSPS estimate the age of a stellar population from its SED. This will be applied to improving SN Ia distance measurements.</Description>
		<PIName>Benjamin Rose</PIName>
		<Organization>University of Notre Dame</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mavkovkq2s0l</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>339</ID>
		<Name>poromech</Name>
		<Description>In order to reduce carbon dioxide emissions, experts have proposed requiring major carbon dioxide emitters to modify their infrastructure to collect carbon dioxide exhaust and compress it into a super-critical fluid for injection into a well-sealed geologic structure such as an exhausted oil or natural gas reservoir. We are therefore developing a tool to assess and monitor potential carbon capture and storage sites. 

We use large-scale reservoir simulations to investigate the mechanical stresses that would effect a reservoir as it is injected with super-critical carbon dioxide. Since we will not know the precise geologic structure of a given field site, this requires us to run a very large number of computationally-intensive simulations (10$^4$-10$^7$) in order to adequately investigate every possible geologic structure. These simulations can then be compared to measurements from the surface and from wells drilled into the reservoir, allowing us to identify which proposed structures best explain the data. This will allow us to infer the structure and state of the subsurface.</Description>
		<PIName>Stephen Moysey</PIName>
		<Organization>Clemson University</Organization>
		<Department>Environmental Engineering and Earth Sciences</Department>
		<FieldOfScience>Ecological and Environmental Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ricyf18amt49</InstitutionID>
		<FieldOfScienceID>15.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>122</ID>
		<Name>psims</Name>
		<Description>A framework for massively parallel climate impact simulations: the parallel System for Integrating Impact Models and Sectors (pSIMS). This framework comprises a) tools for ingesting and 
converting large amounts of data to a versatile datatype based on a common geospatial grid; b) tools for translating this datatype into custom formats for site-based models; c) a scalable parallel framework for performing large ensemble simulations, using any one of a number of different impacts models, on clusters, supercomputers, distributed grids, or clouds; d) tools and data standards for reformatting outputs to common datatypes for analysis and visualization; and e) methodologies for aggregating these datatypes to arbitrary spatial scales such as administrative and environmental demarcations. By automating many time-consuming and error-prone aspects of large-scale climate impacts studies, pSIMS
accelerates computational research, encourages model intercomparison, and enhances reproducibility of
simulation results.</Description>
		<PIName>Joshua Elliott</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Earth Sciences</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.06</FieldOfScienceID>
	</Project>
	<Project>
		<ID>474</ID>
		<Name>psychosisfmri</Name>
		<Description>This project will make use of fMRI data of psychotic patients in order to parse heterogeneity in functional activity across multiple diagnosis. The need for computing power results from the need to preprocess the fMRI, from which we want to obtain a region level connectivity matrix for each of the approximately 1200 subjects that will be analyzed.</Description>
		<PIName>De Sa Nunes Correia Diogo</PIName>
		<Organization>Northeastern University</Organization>
		<Department>College of Science</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/454t2lfhcfpp</InstitutionID>
		<FieldOfScienceID>26.1501</FieldOfScienceID>
	</Project>
	<Project>
		<ID>567</ID>
		<Name>rencinrig</Name>
		<Description>Project is intended to be used as a test project for a learning experience for the workflows on OSG.</Description>
		<PIName>Mert Cevik</PIName>
		<Organization>Renaissance Computing Institute</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/h7l0qel53a0t</InstitutionID>
		<FieldOfScienceID>11.07</FieldOfScienceID>
	</Project>
	<Project>
		<ID>524</ID>
		<Name>retrovision</Name>
		<Description>Simulation of the retrospective Bayesian model for visual perception and working memory published in PNAS, to create a mechanistic model for the aforementioned probabilistic framework</Description>
		<PIName>Ning Qian</PIName>
		<Organization>Columbia University</Organization>
		<Department>Zuckerman Institute</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/avy4x5r4jsrw</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>961217345</ID>
		<Name>rnog</Name>
		<Description>The Radio Neutrino Observatory - RNO-G - at Summit Station in Greenland will search for neutrinos above PeV energies.</Description>
		<PIName>Cosmin Deaconu</PIName>
		<Organization>University of Chicago</Organization>
		<Department>The Radio Neutrino Observatory Greenland</Department>
		<FieldOfScience>Astronomy and Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>13</ID>
		<Name>sPHENIX</Name>
		<Description>Collaboration devoted to simulation and design optimization of the prospected Super PHENIX detector (the successor of the existing PHENIX detector) at Relativistic Heavy Ion Collider (RHIC) at BNL.</Description>
		<PIName>Martin Purschke</PIName>
		<Organization>Brookhaven National Laboratory</Organization>
		<Department>Physics Department</Department>
		<FieldOfScience>Nuclear Physics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>30</ID>
				<Name>OSG</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/g29k1hhqys0y</InstitutionID>
		<FieldOfScienceID>40.0806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>306575230</ID>
		<Name>scdms</Name>
		<Description>Super Cryogenic Dark Matter Search</Description>
		<PIName>Noah Kurinsky</PIName>
		<Organization>SLAC National Accelerator Laboratory</Organization>
		<Department>Particle Physics</Department>
		<FieldOfScience>High Energy Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gsbt8law2xf0</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>99</ID>
		<Name>scicomp-analytics</Name>
		<Description>Development of collection, aggregation, filtering and analysis of probes and metrics as related to distributed computation on the Open Science Grid.</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>406</ID>
		<Name>selfassembly</Name>
		<Description>The influence of directing agents in the self-assembly of molecular wires to produce two-dimensional electronic nanoarchitectures is studied here using a Monte Carlo approach to simulate the effect of arbitrarily locating nodal points on a surface, from which the growth of self-assembled molecular wires can be nucleated.</Description>
		<PIName>Eddie Tysoe</PIName>
		<Organization>University of Wisconsin-Milwaukee</Organization>
		<Department>Chemistry</Department>
		<FieldOfScience>Chemistry</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/812rlsqwylrc</InstitutionID>
		<FieldOfScienceID>40.05</FieldOfScienceID>
	</Project>
	<Project>
		<ID>317</ID>
		<Name>seq2fun</Name>
		<Description>We combine innovative high-throughput experiments with data mining approaches to identify functional regulatory elements in biological sequence, building the foundation for further experiments to map complete regulatory networks.</Description>
		<PIName>Peter Freddolino</PIName>
		<Organization>University of Michigan</Organization>
		<Department>Biological Chemistry</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4ocf9kvq30fn</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>324</ID>
		<Name>snada</Name>
		<Description>Simulate social networks to analyze statistical properties.</Description>
		<PIName>Wei Wang</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>450</ID>
		<Name>snasim</Name>
		<Description>This is project is to run conditions to determine the social network factors (e.g., structure, size,density) that affect the statistical power for detecting the interaction term of contagion parameter.</Description>
		<PIName>Wei Wang</PIName>
		<Organization>University of Central Florida</Organization>
		<Department>Psychology</Department>
		<FieldOfScience>Educational Psychology</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/ozb6tv0up0g3</InstitutionID>
		<FieldOfScienceID>42.2806</FieldOfScienceID>
	</Project>
	<Project>
		<ID>820</ID>
		<Name>spinquest</Name>
		<Description>SpinQuest will investigate whether the sea quarks are orbiting around the center of the nucleon by exploring the nucleon in a particular way</Description>
		<PIName>Stephen Pate</PIName>
		<Organization>New Mexico State University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zoe98r1f2ztc</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>16</ID>
		<Name>spt.all</Name>
		<Description>The South Pole Telescope (or SPT) is a new telescope deployed at the South Pole that is designed to study the Cosmic Microwave background. Constructed between November 2006 and February 2007, the SPT is the largest telescope ever deployed at the South Pole. This telescope provides astronomers a powerful new tool to explore dark energy, the mysterious phenomena that may be causing the universe to accelerate.</Description>
		<PIName>John Carlstrom</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Kavil Institute for Cosmological Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>16</ID>
		<Name>spt</Name>
		<Description>The South Pole Telescope (or SPT) is a new telescope deployed at the South Pole that is designed to study the Cosmic Microwave background. Constructed between November 2006 and February 2007, the SPT is the largest telescope ever deployed at the South Pole. This telescope provides astronomers a powerful new tool to explore dark energy, the mysterious phenomena that may be causing the universe to accelerate.</Description>
		<PIName>John Carlstrom</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Kavil Institute for Cosmological Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>388</ID>
		<Name>srccoding</Name>
		<Description>Studying coding schemes for lossy source compression under privacy constraints</Description>
		<PIName>Joerg Kliewer</PIName>
		<Organization>New Jersey Institute of Technology</Organization>
		<Department>Electronic Engineering</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/zhy58gsknnaw</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>533</ID>
		<Name>steward</Name>
		<Description>Steward Observatory Data Analytics</Description>
		<PIName>Chi-Kwan Chan</PIName>
		<Organization>University of Arizona</Organization>
		<Department>Astronomy</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rjyoz6kb8vq</InstitutionID>
		<FieldOfScienceID>40.02</FieldOfScienceID>
	</Project>
	<Project>
		<ID>476</ID>
		<Name>sugwg</Name>
		<Description>Gravitational-wave astronomy and astrophysics.</Description>
		<PIName>Duncan Brown</PIName>
		<Organization>Syracuse University</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/mzpz26kp0f3p</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>504</ID>
		<Name>sweeps</Name>
		<Description>Running simulations using parameters sampled from large ranges</Description>
		<PIName>Murat Acar</PIName>
		<Organization>Yale University</Organization>
		<Department>Molecular Cellular and Developmental Biology</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/np1w2l1semy5</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>517</ID>
		<Name>swipnanobio</Name>
		<Description>Run Pegasus workflows (parameter sweeps + data analysis) on our nanoBIO simulation code, looking for data integrity failures.</Description>
		<PIName>Von Welch</PIName>
		<Organization>Indiana University</Organization>
		<Department>Center for Applied Cybersecurity Research</Department>
		<FieldOfScience>Neuroscience</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uws6kivcttuc</InstitutionID>
		<FieldOfScienceID>26.15</FieldOfScienceID>
	</Project>
	<Project>
		<ID>411</ID>
		<Name>sykclusters</Name>
		<Description>DMRG simulation of many body fermion system</Description>
		<PIName>John McGreevy</PIName>
		<Organization>University of California, San Diego</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/06wup3aye2t7</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>116</ID>
		<Name>uchicago</Name>
		<Description>General use Project for the University of Chicago</Description>
		<PIName>Robert William Gardner Jr</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Computation Institute</Department>
		<FieldOfScience>Multi-Science Community</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>30</FieldOfScienceID>
	</Project>
	<Project>
		<ID>104</ID>
		<Name>unlcpass</Name>
		<Description>The Comparison of Protein Active Site Structures (CPASS) database and software is used as part of our FAST-NMR assay to assign the function of a hypothetical protein or a protein of unknown function. The CPASS database and software enable the comparison of experimentally identified ligand binding sites to infer biological function and aid in drug discovery. The CPASS database is comprised of unique ligand-defined active sites identified in the Protein Data Bank, and the CPASS program compares these ligand-defined active sites to determine sequence and structural similarity without maintaining sequence connectivity, along with ligand similarity, if desired. CPASS will compare any set of ligand-defined protein active sites irrespective of the identity of the bound ligand.</Description>
		<PIName>Adam Caprez</PIName>
		<Organization>University of Nebraska\u2013Lincoln</Organization>
		<Department>Bioinformatics</Department>
		<FieldOfScience>Bioinformatics</FieldOfScience>
		<Sponsor>
			<VirtualOrganization>
				<ID>67</ID>
				<Name>HCC</Name>
			</VirtualOrganization>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/q9k1b8dfrw25</InstitutionID>
		<FieldOfScienceID>26.1103</FieldOfScienceID>
	</Project>
	<Project>
		<ID>107</ID>
		<Name>velev</Name>
		<Description>Electronic structure of solids. Electron and spin transport in nanoscale devices.</Description>
		<PIName>Julian Velev</PIName>
		<Organization>University of Puerto Rico</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Computational Condensed Matter Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/43gwnkrodhv9</InstitutionID>
		<FieldOfScienceID>40.0808</FieldOfScienceID>
	</Project>
	<Project>
		<ID>687</ID>
		<Name>wrench</Name>
		<Description>WRENCH: Workflow Management System Simulation Workbench</Description>
		<PIName>Rafael Ferreira Da Silva</PIName>
		<Organization>University of Southern California</Organization>
		<Department>ISI</Department>
		<FieldOfScience>Computer and Information Science and Engineering</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>9</ID>
				<Name>ISI</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/6edduwj65dlr</InstitutionID>
		<FieldOfScienceID>11</FieldOfScienceID>
	</Project>
	<Project>
		<ID>441118516</ID>
		<Name>xenon</Name>
		<Description>The XENON Dark Matter Experiment located at the Gran Sasso Laboratories (INFN, Italy), is currently the leader world project searching for the so called Dark Matter, something which is completely different from ordinary matter. This Dark Matter is not (as the name hints) visible, but it should pervade the entire Universe. Its presence has been confirmed by different experimental evidences, however its intrinsic nature is one of the big puzzle of Modern Physics. The XENON Experiment could reveal the nature of the DM looking at the possible interactions of the DM with ordinary matter, for instance with the Xenon, a noble gas been liquified at very low temperature. The study of the background signal, from the environment and from the materials that make up the new detector containing the Xenon, is essential to understand the detector's behavior and its implications on its performances.</Description>
		<PIName>Luca Grandi</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>179</ID>
		<Name>xenon1t</Name>
		<Description>The XENON Dark Matter Experiment located at the Gran Sasso Laboratories (INFN, Italy), is currently the leader world project searching for the so called Dark Matter, something which is completely different from ordinary matter. This Dark Matter is not (as the name hints) visible, but it should pervade the entire Universe. Its presence has been confirmed by different experimental evidences, however its intrinsic nature is one of the big puzzle of Modern Physics. The XENON Experiment could reveal the nature of the DM looking at the possible interactions of the DM with ordinary matter, for instance with the Xenon, a noble gas been liquified at very low temperature. The study of the background signal, from the environment and from the materials that make up the new detector containing the Xenon (which is currently under construction and called XENON1T), is essential to understand the detector's behavior and its implications on its performances. For this purpose an extensive Montecarlo simulation and study is needed, and this require quite a lot of CPU time. The MC simulation of the XENON experiment is based on the open source codes called GEANT4 and ROOT.</Description>
		<PIName>Luca Grandi</PIName>
		<Organization>University of Chicago</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astrophysics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations>
			<ResourceAllocation>
				<Type>XRAC</Type>
				<SubmitResources>
					<SubmitResource>UChicago_OSGConnect_login05</SubmitResource>
				</SubmitResources>
				<ExecuteResourceGroups>
					<ExecuteResourceGroup>
						<GroupName>SDSC-Expanse</GroupName>
						<LocalAllocationID>chi135</LocalAllocationID>
					</ExecuteResourceGroup>
				</ExecuteResourceGroups>
			</ResourceAllocation>
		</ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/o14joi278jrs</InstitutionID>
		<FieldOfScienceID>40.0202</FieldOfScienceID>
	</Project>
	<Project>
		<ID>304</ID>
		<Name>z2dqmc</Name>
		<Description>We study Z2 lattice gauge theory coupled to fermonic matter fields. The problem can be studied using sign problem free quantum Monte Carlo allowing a numerically unbiased computation.</Description>
		<PIName>Snir Gazit</PIName>
		<Organization>University of California, Berkeley</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor>
			<CampusGrid>
				<ID>14</ID>
				<Name>OSG Connect</Name>
			</CampusGrid>
		</Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/7rhak0ujmsoe</InstitutionID>
		<FieldOfScienceID>40.08</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1057167311</ID>
		<Name>CUBoulder_Rolf</Name>
		<Description>Development of foundation models for earth observation.</Description>
		<PIName>Esther Rolf</PIName>
		<Organization>University of Colorado Boulder</Organization>
		<Department>Computer Science</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/gpeckuwpdnrs</InstitutionID>
		<FieldOfScienceID>11.0102</FieldOfScienceID>
	</Project>
	<Project>
		<ID>141750347</ID>
		<Name>UTC_Wang</Name>
		<Description>My group develops reliable, data-efficient, and physics-grounded generative machine learning methods for imaging and computational anatomy, with a focus on robust image reconstruction and analysis under domain shift. We use HPC workflows to train and validate these models at scale for clinically relevant imaging tasks.</Description>
		<PIName>Zihao Wang</PIName>
		<Organization>University of Tennessee at Chattanooga</Organization>
		<Department>Computer Science and Engineering</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/4e79d27c93p7</InstitutionID>
		<FieldOfScienceID>11.0701</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1323529064</ID>
		<Name>PoliSci_Kim</Name>
		<Description>Kim’s research concerns media and politics in the age of data-driven digital media, specifically the role digital media play in political communication among political leaders, non-party groups (issue advocacy groups), and citizens.</Description>
		<PIName>Young Mie Kim</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Political Science</Department>
		<FieldOfScience>Multidisciplinary</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>09.0904</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1702699611</ID>
		<Name>CSUChico_Wenger</Name>
		<Description>The physical conditions of the interstellar medium - the stuff between the stars - are revealed through spectroscopic observations. Probabilistic models are a novel technique to infer these conditions from observations. This project uses high throughput computing to fit bayes_spec (https://joss.theoj.org/papers/10.21105/joss.07201) probabilistic models to a variety of simulated and real datasets.</Description>
		<PIName>Trey Wenger</PIName>
		<Organization>California State University, Chico</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/byvwrmby4l7e</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1026174486</ID>
		<Name>UWMadison_Physics_Otten</Name>
		<Description>The Otten Lab’s goal is to accelerate the realization of useful, utility-scale quantum computers, networks, and sensors. We develop, analyze, and test quantum algorithms for applications in quantum chemistry, quantum dynamics, and quantum machine learning. Our team also focuses on creating and implementing quantum characterization, verification, and validation (QCVV) methods to understand and mitigate inevitable errors.</Description>
		<PIName>Matthew Otten</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0899</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1870474302</ID>
		<Name>IBio_Ragsdale</Name>
		<Description>Our research aims to understand how evolutionary forces are expected to shape genetic diversity within populations, and then uses this understanding to learn about demographic and selective histories and processes from genome sequencing data.</Description>
		<PIName>Aaron Ragsdale</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Department of Integrative Biology</Department>
		<FieldOfScience>Biological Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>26.1303</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1992591351</ID>
		<Name>NJDOH_Ostrow</Name>
		<Description>Using COVID wastewater data to try to predict what characteristics of covid communities can predict spikes in viral activity. Initially, need to process thousands of sequence samples of COVID</Description>
		<PIName>Emily Ostrow</PIName>
		<Organization>New Jersey Department of Health</Organization>
		<Department>Department of Health</Department>
		<FieldOfScience>Biological and Biomedical Sciences</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/re4s0wkt8cn2</InstitutionID>
		<FieldOfScienceID>51.2214</FieldOfScienceID>
	</Project>
	<Project>
		<ID>290244736</ID>
		<Name>OSG_NAIRR2026</Name>
		<Description>NAIRR 2026 Annual Meeting Tutorial
Title: Training Ensembles Across NAIRR Resources
Ian Ross, University of Wisconsin–Madison
Danny Morales, University of Wisconsin–Madison

Modern AI research requires training ensembles of models: hyperparameter optimization explores multiple configurations, cross-validation needs models trained on different data splits, and multiple models can be combined for better predictions. The traditional approach of training an ensemble of models sequentially is time-consuming and lengthens the time-to-insight. This tutorial demonstrates a throughput oriented approach: plan once, then distribute your ensemble training across all available resources simultaneously.

This hands-on tutorial teaches you how to leverage services provided by the Partnership to Advance Throughput Computing (PATh) to train ensembles of machine learning models across the NAIRR resources. After planning and running the first training, scaling to dozens of models requires minimal additional effort.

https://events.internet2.edu/website/89730/tutorials/</Description>
		<PIName>Ian Ross</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>CHTC</Department>
		<FieldOfScience>Computer Science</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>11.0101</FieldOfScienceID>
	</Project>
	<Project>
		<ID>1587274294</ID>
		<Name>Physics_Cranmer</Name>
		<Description>High-energy experimental particle physics, machine learning for the physical sciences, statistical inference, data science</Description>
		<PIName>Kyle Cranmer</PIName>
		<Organization>University of Wisconsin–Madison</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Particle Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/fq8thqsj99zh</InstitutionID>
		<FieldOfScienceID>40.0804</FieldOfScienceID>
	</Project>
	<Project>
		<ID>292470003</ID>
		<Name>UARK_Kennefick</Name>
		<Description>We are running codes to model gravitational waves from sources relevant to the LISA mission (Laser Interferometer Space Antenna), specifically from extreme-mass ratio (EMRI) black hole binaries and coincident galactic binaries (especially white dwarf binaries in the Milky Way). The EMRI code aims to provide detailed information for ultimate use in LISA Data Analysis. The Galactic Binary aspect of the project aims to develop ways to deal with confusion between similar signals that occur at the same time and are visible simultaneously by the LISA detector.</Description>
		<PIName>Daniel Kennefick</PIName>
		<Organization>University of Arkansas at Fayetteville</Organization>
		<Department>Physics</Department>
		<FieldOfScience>Astronomy</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/78b3lgmajszi</InstitutionID>
		<FieldOfScienceID>40.0201</FieldOfScienceID>
	</Project>
	<Project>
		<ID>981440530</ID>
		<Name>GATech_Lin</Name>
		<Description>The Emory Proton Therapy Center has previously developed a treatment planning simulation code that simultaneously optimizes dose, dose-averaged dose rate, and Linear Energy Transfer (LET) for a pin-and-bar collimator. This project aims to accelerate this simulation through the use of GPU-based simulation code and through training a diffusion model for treatment plan generation.</Description>
		<PIName>Liyong Lin</PIName>
		<Organization>Georgia Institute of Technology</Organization>
		<Department>Nuclear &amp; Radiological Engineering and Medical Physics</Department>
		<FieldOfScience>Physics</FieldOfScience>
		<Sponsor></Sponsor>
		<ResourceAllocations></ResourceAllocations>
		<InstitutionID>https://osg-htc.org/iid/uvf22j6xjbtv</InstitutionID>
		<FieldOfScienceID>40.0899</FieldOfScienceID>
	</Project>
</Projects>