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Quantum kinetic Heisenberg models: a unique dynamics

JUSSI TIMONEN, D. J. Pilling, R. Bullough

Published Jan 1, 1986• 0 citations
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Partial Contents: STATISTICAL PHYSICS; Fractal singularities in a measure and how to measure singularities on a fractal; Quantum kinetic Heisenberg models: a unique dynamics; The kinetic boundary layer: a small scale system far from equilibrium; NUCLEAR AND HIGH ENERGY PHYSICS; The K+ meson as a probe of neutron densities in deformed nuclei; Properties of the S matrix for absorbing potentials; Glauber theory of electron nucleus scattering; QUANTUM OPTICS; The group velocity of short optical pulses; Order and chaos in quantum optics; Beyond the coherent states: Gaussons of the electromagnetic field; Influence of phase diffusion on spontaneous oscillations in the laser with injected signal; Quantum chaos on a sphere; Quantum theory of balanced homodyne detection; A test for high order squeezing of a quantum electromagnetic field; Quantum coherence effects in a Compton regime free electron laser; Superfluorescence from randomly distributed atoms; and Quantum coherence, dissipation and measurement theory.

•Jan 1, 1986•0 citations
A remarkable feature of standard quantum mechanics is its analogy with classical fluid dynamics. This has motivated in the past efforts to formulate phase-space techniques based on various statistical models of quantum hydrodynamic equations. In this work an inverse kinetic theory for the Schr\"odinger equation has been constructed in order to formally describe the standard quantum dynamics by means of a classical dynamical system (to be denoted as phase-space Schr\"odinger dynamical system). It is shown that the inverse kinetic theory can be (non)uniquely determined under suitable mathematical prescriptions. In particular, when the quantum linear momentum is identified with a suitable linear kinetic momentum, it follows that the fluctuations of the position vector and the kinetic linear momentum satisfy identically the Heisenberg theorem.
A striking feature of standard quantum mechanics (SQM) is its analogy with classical fluid dynamics. In particular it is well known the Schrödinger equation can be viewed as describing a classical compressible and non‐viscous fluid, described by two (quantum) fluid fields {ρ,V}, to be identified with the quantum probability density and velocity field. This feature has suggested the construction of a phase‐space hidden‐variable description based on a suitable inverse kinetic theory (IKT; Tessarotto et al., 2007). The discovery of this approach has potentially important consequences since it permits to identify the classical dynamical system which advances in time the quantum fluid fields. This type of approach, however requires the identification of additional fluid fields. These can be generally identified with suitable directional fluid temperatures TQM,i (for i = 1,2,3), to be related to the expectation values of momentum fluctuations appearing in the Heisenberg inequalities. Nevertheless the definition given previously for them (Tessarotto et al., 2007) is non‐unique. In this paper we intend to propose a criterion, based on the validity of a constant H‐theorem, which provides an unique definition for the quantum temperatures.
Partial Contents: STATISTICAL PHYSICS; Fractal singularities in a measure and how to measure singularities on a fractal; Quantum kinetic Heisenberg models: a unique dynamics; The kinetic boundary layer: a small scale system far from equilibrium; NUCLEAR AND HIGH ENERGY PHYSICS; The K+ meson as a probe of neutron densities in deformed nuclei; Properties of the S matrix for absorbing potentials; Glauber theory of electron nucleus scattering; QUANTUM OPTICS; The group velocity of short optical pulses; Order and chaos in quantum optics; Beyond the coherent states: Gaussons of the electromagnetic field; Influence of phase diffusion on spontaneous oscillations in the laser with injected signal; Quantum chaos on a sphere; Quantum theory of balanced homodyne detection; A test for high order squeezing of a quantum electromagnetic field; Quantum coherence effects in a Compton regime free electron laser; Superfluorescence from randomly distributed atoms; and Quantum coherence, dissipation and measurement theory.