Canonical quantization of classical systems with generalized entropies
A. M. Scarfone
Abstract
We present, in the framework of the canonical quantization, a class of nonlinear Schroedinger equations with a complex nonlinearity describing, in the mean field approximation, systems of collectively interacting particles. The quantum evolution equation is obtained starting from the study of a N-body classical system where the underlined nonlinear kinetics is governed by a kinetic interaction principle (KIP) recently proposed [G. Kaniadakis: Physica A 296 (2001), 405--425]. The KIP, both imposes the form of the generalized entropy associated to the classical system, and determines the Fokker-Planck equation describing the kinetic evolution of the system towards equilibrium. Keywords: Nonlinear Schroedinger equation, Nonlinear kinetics, Generalized entropy.
Create a lesson
Related papers
Developing the Statistical Mechanics of Evolving Assembly Spaces
Anisha K. Yeddanapudi, Abhishek Sharma, Ian Seet et al.
Ergodicity breaking transition beyond qubits
Tanay Pathak, Abhik Kumar Saha
Extended-range percolation on lattices with cubic and non-compact neighborhoods in three dimensions
Zhe Zhang, Yuxuan Fan, Yang Yang et al.
Competitive scaling of small-subsystem-optimization heuristics for LABS
Ginger E. Lau, Adil A. Gangat
IceCube data for astrophysical neutrinos exhibit q-statistical behavior
Constantino Tsallis, Ugur Tirnakli
Robust Golden Ratio universality as a consequence of a circulant symmetry
Luka Paljk, Johannes Schmidt, Vladislav Popkov