Lattice QCD / GPU / Wilson / Brookhaven National Laboratory / /
Continent
Europe / /
Country
Germany / Russia / United States / / /
Facility
Thomas Jefferson National Accelerator Facility / Boston University / College of William / Quantum Chromodynamics Lead Institute / University of Washington / University of North Carolina / Massachusetts Institute of Technology / / /
IndustryTerm
non-zero chemical potential / energy scale / hadron resonance gas / software developments / heterogeneous computing environments / beam energy / baryon chemical potential / chemical potential / simulation software / large-scale computing / accessible chemical freeze-out conditions / collaboration WEB page / chemical potential plane / statistical tools / software suite / optimized software / software development effort / non-zero baryon chemical potential / gauge field evolution algorithms / high energy / nuclear systems / computing / software libraries / /
Organization
University of Washington / College of William and Mary / University of North Carolina / Quantum Chromodynamics Lead Institute / Massachusetts Institute of Technology / Lead Institution / Associate Lab / Boston University / DOE/NSF Nuclear Science Advisory Committee / /
Person
Robert Edwards / Richard Brower / John Negele / David Richards / Martin Savage / Rob Fowler / Andreas Stathopoulos / Steve Vigdor / / /
Position
Scientist / Project Director / Official / Director Fax / Director / Project Co-director / Executive / /
ProgrammingLanguage
JLab / L / /
ProvinceOrState
New York / North Carolina / Massachusetts / /
Technology
thermodynamics / simulation / gauge field evolution algorithms / /
Computing Properties of Hadrons, Nuclei and Nuclear Matter from Quantum Chromodynamics SC Program Announcement title and number: Scientific Discovery through Advanced Computing: Nuclear Physics (LAB[removed]Lead Institu