The non-perturbative vacuum structure of quantum chi-omodynemics (QCD) is studied with the help of methods which are generalizations of those used to describe conc1enc;ztion effects and quasi-particles in superfluid and superconductive mediums. The gliio:i condensation is explained by the introducti
Numerical simulation of quantum chromodynamics
β Scribed by Robert L. Sugar
- Publisher
- Elsevier Science
- Year
- 1991
- Tongue
- English
- Weight
- 941 KB
- Volume
- 65
- Category
- Article
- ISSN
- 0010-4655
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β¦ Synopsis
Numerical simulations presently provide the most promising approach to the study of quantum chromodynamics in the nonperturbative regime. The theoretical framework for these studies is described, and the computing resources necessary to carry out calculations are discussed. Results are presented from recent studies of hadron thermodynamics and the hadron mass spectrum which illustrate the present state of the art.
π SIMILAR VOLUMES
Ab s t rii ct. The nonperturbative vacuum structure of Quantum Chromodynamic is studied with the help of a generalization of the formalism of Green functions which corresponds t o the method of Gorkov and Nambu in the theory of superconductivity. Taking into account the existence of gluon condensati
## Abstract Numerical simulation of nanoscale doubleβgate SOI (SiliconβonβInsulator) greatly depends on the accurate representation of quantum mechanical effects. These effects include, mainly, the quantum confinement of carriers by gateβoxides in the direction normal to the interfaces, and the qua