Detecting Entanglement Gravity: Distinguishing Energy-Sourced and Information-Sourced Gravity using High-Q Superconducting Cavities

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Autores principales: Ma, Haobo, Zhang, Wenlin
Formato: Recurso digital
Publicado: Zenodo 2025
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author Ma, Haobo
Zhang, Wenlin
author_facet Ma, Haobo
Zhang, Wenlin
contents In the standard framework of General Relativity, the gravitational field is completely determined by the energy-momentum tensor T_{\mu\nu}; in the weak-field limit, as long as the energy density and pressure distribution remain unchanged, gravitational effects are independent of the entanglement structure of quantum states. In contrast, a series of works based on entropy, entanglement, and holographic principles suggest that Einstein's equations can be derived from local entropy balance or vacuu
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_17692994
institution Zenodo
language
publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Detecting Entanglement Gravity: Distinguishing Energy-Sourced and Information-Sourced Gravity using High-Q Superconducting Cavities
Ma, Haobo
Zhang, Wenlin
Unified Time Scale
Generalized Entropy
Quantum Scattering
General Relativity
Boundary Time Geometry
Causal Structure
Information Theory
Wigner-Smith Time Delay
Modular Flow
QNEC
Spectral Shift Function
Time Geometry
In the standard framework of General Relativity, the gravitational field is completely determined by the energy-momentum tensor T_{\mu\nu}; in the weak-field limit, as long as the energy density and pressure distribution remain unchanged, gravitational effects are independent of the entanglement structure of quantum states. In contrast, a series of works based on entropy, entanglement, and holographic principles suggest that Einstein's equations can be derived from local entropy balance or vacuu
title Detecting Entanglement Gravity: Distinguishing Energy-Sourced and Information-Sourced Gravity using High-Q Superconducting Cavities
topic Unified Time Scale
Generalized Entropy
Quantum Scattering
General Relativity
Boundary Time Geometry
Causal Structure
Information Theory
Wigner-Smith Time Delay
Modular Flow
QNEC
Spectral Shift Function
Time Geometry
url https://doi.org/10.5281/zenodo.17692994