Hadron Thermodynamics On the Connection Machine
Steven A. Gottlieb, A. Krasnitz, Urs M. Heller, A.D. Kennedy, W. Liu, John B. Kogut, R.L. Renken, D.K. Sinclair, K.C. Wang, R. Sugar, D. Toussaint
Abstract
Steven A. Gottlieb, A. Krasnitz, Urs M. Heller, A.D. Kennedy, W. Liu, John B. Kogut, R.L. Renken, D.K. Sinclair, K.C. Wang, R. Sugar, D. Toussaint
Abstract
Quantum chromodynamics (QCD) predicts that at very high temperature there is a phase transition or cross over from the low-temperature state of ordinary matter to a high-temperature state consisting of a plasma of quarks and gluons. The nature of this transition and the properties of the high-temperature phase are im portant for an understanding of cosmology, heavy ion collisions, and the structure of QCD itself. The study of high-temperature QCD is one of the major goals of lattice gauge theory. Such studies involve large-scale computer simulations. We briefly review the status of this subject and present preliminary results from a large-scale study in progress on the Pittsburgh Super computer Center's Connection Machine (CM-2).
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Quantum chromodynamics (QCD) predicts that at very high temperature there is a phase transition or cross over from the low-temperature state of ordinary matter to a high-temperature state consisting of a plasma of quarks and gluons. The nature of this transition and the properties of the high-temperature phase are im portant for an understanding of cosmology, heavy ion collisions, and the structure of QCD itself. The study of high-temperature QCD is one of the major goals of lattice gauge theory. Such studies involve large-scale computer simulations. We briefly review the status of this subject and present preliminary results from a large-scale study in progress on the Pittsburgh Super computer Center's Connection Machine (CM-2).
Key concepts: Quantum chromodynamics, Quark–gluon plasma, Physics, Lattice QCD, Connection (principal bundle), Phase transition, Particle physics, Lattice field theory