The Null Time Hypothesis: How Temporal Erasure Creates the Illusion of Quantum Nonlocality

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Autore principale: Elliott, G. H.
Natura: Recurso digital
Pubblicazione: Zenodo 2025
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author Elliott, G. H.
author_facet Elliott, G. H.
contents <div>We resolve the quantum nonlocality paradox by identifying a fundamental category error: the misinterpretation of null time (temporal coordinate absence) as zero time (instantaneous signaling). The Born rule's projection from amplitude space to probability space deliberately discards the dynamical phase ϕ_d(t) = e^{-iEt/ℏ}—Schrödinger's clock—that encodes the system's temporal evolution. This erasure leaves measurement events without temporal coordination, forcing experiments to employ classical coincidence windows as substitutes for the destroyed quantum timing information. We demonstrate that Bell-type correlations emerge from strictly local propagation of synchronized dynamical phases from a common source to each detector, with the apparent nonlocality arising only after temporal information destruction. The model reproduces all quantum predictions while restoring local causality, revealing that quantum mechanics is fundamentally local in its amplitude-space representation.</div> <div> </div> <div>Keywords</div> <div>quantum nonlocality, Bell theorem, EPR paradox, Born rule, temporal erasure, dynamical phase, Schrödinger's clock, local causality, amplitude space, coincidence windows, post-selection alignment, rotational invariance</div>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_17706482
institution Zenodo
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publishDate 2025
publisher Zenodo
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spellingShingle The Null Time Hypothesis: How Temporal Erasure Creates the Illusion of Quantum Nonlocality
Elliott, G. H.
quantum nonlocality
Bell theorem
EPR paradox
Born rule
temporal erasure
dynamical phase
Schrödinger's clock
local causality
amplitude space
coincidence windows
post-selection alignment,
rotational invariance
<div>We resolve the quantum nonlocality paradox by identifying a fundamental category error: the misinterpretation of null time (temporal coordinate absence) as zero time (instantaneous signaling). The Born rule's projection from amplitude space to probability space deliberately discards the dynamical phase ϕ_d(t) = e^{-iEt/ℏ}—Schrödinger's clock—that encodes the system's temporal evolution. This erasure leaves measurement events without temporal coordination, forcing experiments to employ classical coincidence windows as substitutes for the destroyed quantum timing information. We demonstrate that Bell-type correlations emerge from strictly local propagation of synchronized dynamical phases from a common source to each detector, with the apparent nonlocality arising only after temporal information destruction. The model reproduces all quantum predictions while restoring local causality, revealing that quantum mechanics is fundamentally local in its amplitude-space representation.</div> <div> </div> <div>Keywords</div> <div>quantum nonlocality, Bell theorem, EPR paradox, Born rule, temporal erasure, dynamical phase, Schrödinger's clock, local causality, amplitude space, coincidence windows, post-selection alignment, rotational invariance</div>
title The Null Time Hypothesis: How Temporal Erasure Creates the Illusion of Quantum Nonlocality
topic quantum nonlocality
Bell theorem
EPR paradox
Born rule
temporal erasure
dynamical phase
Schrödinger's clock
local causality
amplitude space
coincidence windows
post-selection alignment,
rotational invariance
url https://doi.org/10.5281/zenodo.17706482