Non-relativistic quantum theory consistent with principle of locality
Isaac Shnaid

TL;DR
This paper proposes a local, finite-speed propagation model for non-relativistic quantum wave functions, aligning quantum mechanics with the principle of locality and addressing non-locality issues in Schrödinger's equation.
Contribution
It introduces a hypothesis that wave function perturbations propagate at the speed of light, developing a finite-speed quantum theory consistent with locality and classical experimental results.
Findings
Wave function perturbations propagate at finite speed, not instantaneously.
The theory aligns with classical electron diffraction experiments.
It offers a local interpretation of quantum phenomena like entanglement.
Abstract
Principle of locality means that any local change (perturbation) of the stationary state wave function field propagates with finite speed, and therefore reaches distant regions of the field with time delay. If a one-particle or multi-particle non-relativistic quantum system is initially in a stationary state, and its wave function field is locally perturbed, then perturbed and non-perturbed sub-regions appear in the region. According to Schr\"odinger equation, borders of the perturbed sub-region propagate with infinite speed, and the perturbation instantaneously affects all infinite region. It means that Schr\"odinger equation predicts infinite speed of the wave function perturbations propagation. This feature of classical Schr\"odinger equation is traditionally interpreted as non-locality of quantum mechanics. From physical point of view, such mathematical behavior of Schr\"odinger…
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Taxonomy
TopicsQuantum Mechanics and Applications · Relativity and Gravitational Theory · Advanced Thermodynamics and Statistical Mechanics
