Gravito-Electro-Magnetic (GEM) Experiment: Enhanced Theoretical Predictions from Emergent Quantum Field Theory (E-QFT)
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Abstract
The Gravito-ElectroMagnetic (GEM) experiment aims to detect a possible frequencydependent gravitational deflection of photons, an effect not predicted by General Relativity (GR). In this work, we present enhanced theoretical predictions derived from the Emergent Quantum Field Theory (E-QFT) framework, which posits a non-factorizable global Hilbert space structure as the foundation of all fundamental interactions. E-QFT predicts that the deflection angle ∆θ of photons near a massive object will exhibit a subtle but measurable linear dependence on photon energy, arising from the topological characteristics of the underlying quantum structure. We provide detailed numerical predictions based on realistic GEM experimental parameters, estimate the minimum angular resolution required for detection, and propose experimental enhancement strategies. Detection of the E-QFT signature would constitute a groundbreaking confirmation of a non-factorizable structure in nature, with profound implications for our understanding of quantum gravity, spacetime, and fundamental physics. This document offers a complete theoretical analysis, quantitative predictions, and practical guidelines for future experimental validation.
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Abstract
The Gravito-ElectroMagnetic (GEM) experiment aims to detect a possible frequencydependent gravitational deflection of photons, an effect not predicted by General Relativity (GR). In this work, we present enhanced theoretical predictions derived from the Emergent Quantum Field Theory (E-QFT) framework, which posits a non-factorizable global Hilbert space structure as the foundation of all fundamental interactions. E-QFT predicts that the deflection angle ∆θ of photons near a massive object will exhibit a subtle but measurable linear dependence on photon energy, arising from the topological characteristics of the underlying quantum structure. We provide detailed numerical predictions based on realistic GEM experimental parameters, estimate the minimum angular resolution required for detection, and propose experimental enhancement strategies. Detection of the E-QFT signature would constitute a groundbreaking confirmation of a non-factorizable structure in nature, with profound implications for our understanding of quantum gravity, spacetime, and fundamental physics. This document offers a complete theoretical analysis, quantitative predictions, and practical guidelines for future experimental validation.
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Lionel Barreiro.
Gravito-Electro-Magnetic (GEM) Experiment: Enhanced Theoretical Predictions from Emergent Quantum Field Theory (E-QFT). Authorea. 28 April 2025.
DOI: https://doi.org/10.22541/au.174585830.06944069/v1
DOI: https://doi.org/10.22541/au.174585830.06944069/v1
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