A Proof for Poisson Bracket in Non-commutative Algebra of Quantum Mechanics
Sina Khorasani

TL;DR
This paper demonstrates that the Poisson bracket in quantum mechanics can be derived from fundamental principles using Fourier transforms and Kramers-Kronig identities, eliminating the need for it to be postulated.
Contribution
It introduces a derivation of the Poisson bracket from basic concepts, replacing the traditional postulate with deeper mathematical foundations.
Findings
Poisson bracket derived from Fourier and Kramers-Kronig identities
Definition of Hermitian time-operator and its properties
Replaces postulate with fundamental mathematical concepts
Abstract
The widely accepted approach to the foundation of quantum mechanics is that the Poisson bracket, governing the non-commutative algebra of operators, is taken as a postulate with no underlying physics. In this manuscript, it is shown that this postulation is in fact unnecessary and may be replaced by a few deeper concepts, which ultimately lead to the derivation of Poisson bracket. One would only need to use Fourier transform pairs and Kramers-Kronig identities in the complex domain. We present a definition of Hermitian time-operator and discuss some of its basic properties.
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Taxonomy
TopicsQuantum Mechanics and Applications · Quantum Mechanics and Non-Hermitian Physics · Algebraic and Geometric Analysis
