Analogs of wave function reduction, quantum entanglement and EPR experiment in classical physics of spacetimes with time machines
I. A. Ovid'ko

TL;DR
This paper demonstrates that classical physics in spacetimes with wormholes can exhibit phenomena analogous to quantum wave function reduction, entanglement, and EPR experiments, providing a classical perspective on quantum-like behaviors.
Contribution
It introduces a novel classical framework where wormholes produce quantum-like effects such as measurement, entanglement, and EPR correlations, bridging classical and quantum physics concepts.
Findings
Small and large balls behave differently in wormhole spacetimes.
Uncertain behaviors of small balls can become definite when absorbed by large balls, mimicking wave function collapse.
Classical analogs of quantum entanglement and EPR experiments are theoretically constructed.
Abstract
It is theoretically revealed that, in classical physics of spacetimes with wormholes, there are analogs of wave function reduction events, quantum entanglement and Einstein-Podolsky-Rosen (EPR) experiment. Within the suggested approach, wormholes are specified by a typical microscopic radius of their mouths, and this causes the size effect in operation of wormhole-based time machines (closed timelike curves; CTCs). For geometric reasons, classical solid balls in a spacetime with a wormhole are divided into the two categories: small and large balls whose traverse through wormholes is permitted and forbidden, respectively. Evolutions of small balls on CTCs can be self-inconsistent (or, in other terms, inconsistent with conventional causality), in which case there is an uncertainty in their behaviors. In contrast, evolutions of large solid balls are always unambiguous. In the situation…
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Taxonomy
TopicsQuantum Mechanics and Applications · Biofield Effects and Biophysics · Relativity and Gravitational Theory
