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Physical Review A

Quantum chaos and two exactly solvable second-quantized models

W.‐H. Steeb, C. M. Villet, A. Kunick

Published Aug 1, 1985• 13 citations
Publisher

Abstract

Two exactly solvable second-quantized models, namely, a one-fermion-one-boson model and the four-point Hubbard model, are presented. The connection with quantum chaotic behavior is discussed.Received 4 February 1985DOI:https://doi.org/10.1103/PhysRevA.32.1232©1985 American Physical Society

DOI
10.1103/physreva.32.1232

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Two exactly solvable second-quantized models, namely, a one-fermion-one-boson model and the four-point Hubbard model, are presented. The connection with quantum chaotic behavior is discussed.Received 4 February 1985DOI:https://doi.org/10.1103/PhysRevA.32.1232©1985 American Physical Society
The present collection of papers is devoted to a rather new and very controversial topic, the so-called “quantum chaos”. Some researchers see nothing essentially new at all in this phenomenon (apart from a number of various examples and models), and they have good reason to believe so. Indeed, the problems in this field all belong to the traditional, “old-fashion”, and rather “simple” quantum mechanics of finite-dimensional systems with a given interaction and no quantized fields. Nevertheless, many, including ourselves, consider quantum chaos to be a new discovery, though in an old field, of a great importance for fundamental physics. To understand this, the phenomenon of quantum chaos should be put into its proper perspective in recent developments in physics. The central point of this perspective is the conception of dynamical chaos (also a rather new topic) in classical mechanics (for a good review see, e.g., Refs.[l-3]). Thus before discussing the current understanding of quantum chaos we need briefly to describe classical dynamical chaos