Microscopic Quantum Many-Body Theories and Their Applications [electronic resource] : Proceedings of a European Summer School, Held at Valencia, Spain, 8–19 September 1997 /
Navarro, Jesus.editor.
Polls, Artur.editor.
European Summer School on Microscopic Many-Body Theories and their Applications(1997 :Valencia, Spain)
Quantum many-body theories have become an essential tool for all physicists. The field is interdisciplinary, predicting the properties of macroscopic matter based on the fundamental interactions between the elementary constituents. This book presents a systematic and pedagogical approach to the coupled cluster method, correlated basis function theory and Monte Carlo methods. These topics are widely recognized and provide the most powerful and widely applicable theories of all available formulations of QMBT. As the future evolution of QMBT depends to a large measure on establishing links between these different methods, the authors discuss hyprid procedures that can build even further upon the huge strengths and great advantages of each theory.
Bibliographic Level Mode of Issuance: Monograph
The coupled cluster method -- Atomic and molecular applications of the coupled cluster method -- A thermal cluster-cumulant theory -- Correlated basis function theory for fermion systems -- Inhomogeneous quantum liquids: Statics, dynamics, and thermodynamics -- Some applications of correlated basis function theories in finite and infinite nuclear systems -- Monte carlo methods in quantum many-body theories -- Monte carlo calculations of nuclei -- Diffusion Monte Carlo for excited states: Application to liquid helium.
Quantum many-body theories have become an essential tool for all physicists. The field is interdisciplinary, predicting the properties of macroscopic matter based on the fundamental interactions between the elementary constituents. This book presents a systematic and pedagogical approach to the coupled cluster method, correlated basis function theory and Monte Carlo methods. These topics are widely recognized and provide the most powerful and widely applicable theories of all available formulations of QMBT. As the future evolution of QMBT depends to a large measure on establishing links between these different methods, the authors discuss hyprid procedures that can build even further upon the huge strengths and great advantages of each theory.
Atoms.
Physics.
Physical chemistry.
Quantum computers.
Spintronics.
Quantum physics.
Atomic, Molecular, Optical and Plasma Physics.
Physical Chemistry.
Mathematical Methods in Physics.
Numerical and Computational Physics, Simulation.
Quantum Information Technology, Spintronics.
Quantum Physics.