The Universal Entangled Collapse Field UECF

This work introduces the Universal Entangled Collapse Framework (UECF), a testable hypothesis proposing that the scalability of quantum error correction (QEC) is fundamentally limited by the exhaustion of physical resources, not solely by theoretical noise thresholds. The framework formalizes a Collapse Threshold Index (CTI)—measured through coherence time, gate fidelity, power dissipation, and noise correlation—as the empirical boundary at which error correction fails, regardless of code redundancy. UECF translates well-known engineering challenges into a unified, operational criterion and provides detailed experimental protocols for immediate validation or falsification on current quantum hardware. The framework is fully open for community testing, replication, and model refinement. While UECF’s broader relevance to other complex systems is discussed as a future direction, its primary focus is on quantum error correction. This work aims to accelerate scientific understanding and collaborative benchmarking of resource-driven failure in advanced quantum and computational systems.

Publication Details

Journal
Figshare
Published
2025-01-01
DOI
https://doi.org/10.6084/m9.figshare.29465708.v1
Primary Topic
Radiation Effects in Electronics
Type
article
Field-Weighted Citation Impact
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article

The Universal Entangled Collapse Field UECF

Figshare
Radiation Effects in Electronics
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The Universal Entangled Collapse Field UECF

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Abstract

This work introduces the Universal Entangled Collapse Framework (UECF), a testable hypothesis proposing that the scalability of quantum error correction (QEC) is fundamentally limited by the exhaustion of physical resources, not solely by theoretical noise thresholds. The framework formalizes a Collapse Threshold Index (CTI)—measured through coherence time, gate fidelity, power dissipation, and noise correlation—as the empirical boundary at which error correction fails, regardless of code redundancy. UECF translates well-known engineering challenges into a unified, operational criterion and provides detailed experimental protocols for immediate validation or falsification on current quantum hardware. The framework is fully open for community testing, replication, and model refinement. While UECF’s broader relevance to other complex systems is discussed as a future direction, its primary focus is on quantum error correction. This work aims to accelerate scientific understanding and collaborative benchmarking of resource-driven failure in advanced quantum and computational systems.

Figshare
Openalex Percentile: Top 54%
Radiation Effects in Electronics
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