Quantifying some properties of the stochastic quantum force
Roumen Tsekov, Eyal Heifetz

TL;DR
This paper models the quantum force in the Schrödinger equation as a stochastic force, analyzing its properties and implications for quantum pressure and uncertainty relations, with a focus on the Bohm potential and vacuum fluctuations.
Contribution
It introduces a novel interpretation of the quantum force as a stochastic force with specific statistical properties and links it to the Bohm potential and vacuum fluctuations.
Findings
Quantum force's local mean proportional to third derivative of probability density
Imaginary part of quantum momentum as root mean square fluctuation
Quantum Bohm potential interpreted as energy to place a particle in fluctuating vacuum
Abstract
We consider for clarity the simple case of the one dimensional non-relativistic Schr\"{o}dinger equation and regard it as an ensemble mean representation of the stochastic motion of a single particle in a vacuum, subject to an undefined stochastic quantum force. By analyzing the Bohm potential it is found that the imaginary part of the quantum momentum is the root mean square fluctuation of the particle around its mean velocity, where the latter is the real part of the quantum momentum. The local mean of the quantum force is found to be proportional to the third spatial derivative of the probability density function, and its associated pressure to the second spatial derivative. The latter is decomposed from the single particle diluted gas pressure, and this pressure partition allows the interpretation of the quantum Bohm potential as the energy required to put a particle in a bath of…
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Taxonomy
TopicsAdvanced Thermodynamics and Statistical Mechanics · Quantum Mechanics and Applications · Statistical Mechanics and Entropy
