Quantum nonlocality, and the end of classical space-time
Shreya Banerjee, Sayantani Bera, T. P. Singh

TL;DR
This paper proposes that quantum nonlocality and the apparent conflict with relativity can be resolved by reformulating quantum theory without classical time, using a fundamentally non-commutative space-time framework.
Contribution
It introduces a non-commutative space-time model to reconcile quantum nonlocality with relativity, eliminating causality violations and spooky action at a distance.
Findings
Non-commutative space-time resolves quantum nonlocality issues.
Classical space-time emerges from fluctuations in the non-commutative framework.
Measurement on entangled states is consistent within the non-commutative space-time.
Abstract
Quantum non-local correlations and the acausal, spooky action at a distance suggest a discord between quantum theory and special relativity. We propose a resolution for this discord by first observing that there is a problem of time in quantum theory. There should exist a reformulation of quantum theory which does not refer to classical time. Such a reformulation is obtained by suggesting that space-time is fundamentally non-commutative. Quantum theory without classical time is the equilibrium statistical thermodynamics of the underlying non-commutative relativity. Stochastic fluctuations about equilibrium give rise to the classical limit and ordinary space-time geometry. However, measurement on an entangled state can be correctly described only in the underlying non-commutative space-time, where there is no causality violation, nor a spooky action at a distance.
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