Why Bell Tests Are a Dead End: The Case for Self-Synchronized Quantum Networks

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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 <p>Bell inequality tests have been the gold standard for demonstrating quantum nonlocality<br>for sixty years. We show they are fundamentally limited by their reliance on centralized<br>timing via coincidence windows. This architecture: (1) requires real-time correlation with<br>no offline processing capability, (2) scales poorly to multi-party systems requiring O(N*N)<br>timing circuits, (3) cannot exploit distributed quantum network topologies, and (4) discards<br>the phase information that enables self-synchronization. We demonstrate that homodyne<br>detection preserves embedded timing information in the form of phase, enabling post-hoc<br>correlation with 2140σ confidence without any coincidence circuitry. This amplitude-space<br>approach scales to arbitrary network complexity with O(1) timing requirements. Bell tests<br>served their historical purpose—proving quantum correlations exist—but their centralized<br>architecture makes them unsuitable as a foundation for scalable quantum networks. The<br>future of quantum information processing lies not in refining Bell tests, but in transcending<br>their architectural limitations.</p> <p>Keywords: quantum nonlocality, EPR paradox, Bell theorem, Born rule, bitemporal, dual time, system time, experimenter time, Schrödinger’s Clock, null time, coincidence window, coincidence-free Bell test, dimensional reduction, quantum foundations</p>
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publishDate 2025
publisher Zenodo
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spellingShingle Why Bell Tests Are a Dead End: The Case for Self-Synchronized Quantum Networks
Elliott, G.H.
quantum nonlocality
EPR paradox
Bell theorem
Born rule
bitemporal
dual time
system time
experimenter time
null time
coincidence window
coincidence-free
dimensional reduction
quantum foundations.
coincidence-free Bell test
<p>Bell inequality tests have been the gold standard for demonstrating quantum nonlocality<br>for sixty years. We show they are fundamentally limited by their reliance on centralized<br>timing via coincidence windows. This architecture: (1) requires real-time correlation with<br>no offline processing capability, (2) scales poorly to multi-party systems requiring O(N*N)<br>timing circuits, (3) cannot exploit distributed quantum network topologies, and (4) discards<br>the phase information that enables self-synchronization. We demonstrate that homodyne<br>detection preserves embedded timing information in the form of phase, enabling post-hoc<br>correlation with 2140σ confidence without any coincidence circuitry. This amplitude-space<br>approach scales to arbitrary network complexity with O(1) timing requirements. Bell tests<br>served their historical purpose—proving quantum correlations exist—but their centralized<br>architecture makes them unsuitable as a foundation for scalable quantum networks. The<br>future of quantum information processing lies not in refining Bell tests, but in transcending<br>their architectural limitations.</p> <p>Keywords: quantum nonlocality, EPR paradox, Bell theorem, Born rule, bitemporal, dual time, system time, experimenter time, Schrödinger’s Clock, null time, coincidence window, coincidence-free Bell test, dimensional reduction, quantum foundations</p>
title Why Bell Tests Are a Dead End: The Case for Self-Synchronized Quantum Networks
topic quantum nonlocality
EPR paradox
Bell theorem
Born rule
bitemporal
dual time
system time
experimenter time
null time
coincidence window
coincidence-free
dimensional reduction
quantum foundations.
coincidence-free Bell test
url https://doi.org/10.5281/zenodo.17656922