"Quantum Emergent Geometry: How Nuclear History Shapes Galactic Gravity"

We propose that the geometry of spacetime does not depend exclusively on the local distribution of mass and energy, but also on the global structure of quantum entanglement between visible matter. This hypothesis, called Quantum Emergent Geometry (QEG), extends Einstein's field equations through an entanglement tensor Eμν that captures the geometric contribution of accumulated quantum correlations. QEG predicts that the gravitational anomalies observed in galactic rotation curves, currently attributed to dark matter, are the projection onto visible geometry of a deeper quantum information structure. The hypothesis inherits the empirical evidence of MOND by proposing that formalism is an effective approximation of the physics of Eμν in the galactic regime. Four specific open problems are identified whose resolution would determine the viability of the hypothesis.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-22
DOI
https://doi.org/10.5281/zenodo.20349987
Primary Topic
Dark Matter and Cosmic Phenomena
Type
preprint
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preprint

"Quantum Emergent Geometry: How Nuclear History Shapes Galactic Gravity"

N.L. Capa; I.A. Colaborativa
Zenodo (CERN European Organization for Nuclear Research)
Dark Matter and Cosmic Phenomena
preprint

"Quantum Emergent Geometry: How Nuclear History Shapes Galactic Gravity"

N.L. Capa; I.A. Colaborativa
preprint en

Abstract

We propose that the geometry of spacetime does not depend exclusively on the local distribution of mass and energy, but also on the global structure of quantum entanglement between visible matter. This hypothesis, called Quantum Emergent Geometry (QEG), extends Einstein's field equations through an entanglement tensor Eμν that captures the geometric contribution of accumulated quantum correlations. QEG predicts that the gravitational anomalies observed in galactic rotation curves, currently attributed to dark matter, are the projection onto visible geometry of a deeper quantum information structure. The hypothesis inherits the empirical evidence of MOND by proposing that formalism is an effective approximation of the physics of Eμν in the galactic regime. Four specific open problems are identified whose resolution would determine the viability of the hypothesis.

Zenodo (CERN European Organization for Nuclear Research)
Dark Matter and Cosmic Phenomena
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