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March 3, 20260 citationsOpen Access

Technical Note: MQC-2026-03 Formalization of Inertial Mass Reduction via Higgs-EM Vacuum Saturation (ξ)

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DBDavid Blow

Key Points

  • Localized inertial mass reduction may be achieved, allowing for potential applications in advanced propulsion systems.
  • The Higgs-Electromagnetic coupling constant of approximately 0.0674 indicates a significant relationship in mass dynamics.
  • Formal derivation based on Modified Quantum Coupling framework provides new insight into mass modulation mechanisms.
  • Highlights the need for further studies in vacuum saturation effects, particularly regarding cosmic observations.

Abstract

Description: This technical note provides the formal derivation for localized inertial mass reduction utilizing the fundamental Higgs-Electromagnetic coupling constant (0. 0674). Building upon the MQC (Modified Quantum Coupling) framework, this paper outlines the mechanism by which resonant electromagnetic saturation of the vacuum "decouples" matter from the Higgs field, effectively reducing effective mass (m₄₅₅) toward a zero-point threshold. Key Mathematical Frameworks: The Constant: Identification of the 0. 0674 coupling as the "Decoherence Floor" of the vacuum. The Sleeve Effect: Modeling of the a^-4 radiation pressure differential required to maintain localized vacuum stability. Inertial Symmetry Breaking: Application of MW/GW scale power requirements for field-dependent mass modulation. Predictive Alignment: This note establishes the theoretical foundation for the predicted velocity anomalies in the 2026 JUICE Earth Flyby and provides a mathematical solution to the Hubble Tension (H₀ 67. 4 km/s/Mpc) as a manifestation of large-scale vacuum coupling.

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Cite This Study

David Blow (2026) studied this question.

synapsesocial.com/papers/69a75ce7c6e9836116a262aehttps://doi.org/10.5281/zenodo.18405068
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