Quantum Vacuum Instability, Higgs–Vacuum Coupling, and the Mass Cancellation Regime: An Archival Priority Note within the DVDH Framework

Description This archival priority note presents a phenomenological framework for quantum vacuum instability and effective mass suppression within the Dark Vital Dimensional Hypothesis (DVDH). The document introduces the conceptual structure of the Mass Cancellation Regime, a proposed instability boundary arising from coupled interactions between vacuum energy density, matter density, and elevated photonic energy density. Within the framework, the effective mass of a localized system is modeled through a vacuum–field coupling relation in which extreme photonic conditions may drive the system toward an effective mass-nullification limit (M_{\text{eff}} \to 0). The work further outlines the conceptual basis of the Singular Collapse Equation (CGE), Higgs–vacuum drift dynamics, and the role of structured vacuum fluctuations in high-energy environments. This record is intended exclusively as a scientific provenance and chronological priority declaration. It does not claim experimental confirmation or established physical validity. Instead, the framework is presented as a falsifiable, simulation-driven phenomenological extension designed for future observational and computational testing. The archived material includes: - Conceptual derivations related to vacuum-coupled instability dynamics - Preliminary coupling relations and stability formulations - Simulation-assisted analytical structures - Dimensional Stability Index (DSI) development pathways - Links to associated computational repositories and Zenodo archival datasets The framework further proposes testable predictions, including: - Non-Gaussian structured energy spikes in extreme vacuum environments - Observable vacuum drift signatures under intense photonic density conditions - Potential coupling variations linked to Higgs-like scalar dynamics This archival note also establishes formal continuity with the broader DVDH research program, including the Universal Turbulence Law in Entropy–Energy Coupled Systems and related simulation pipelines. All mathematical structures and theoretical constructs presented herein remain under active development and are subject to future refinement, validation attempts, or falsification through observational evidence and computational analysis. Research Group: D³ VITAL-X Author: Md. Ra-bi-ul Islam (R. Islam) Document Type: Archival Priority Note (v0.4) Status: Open Theoretical Framework for Future Investigation Slogan: Transform the World, Illuminate the Future

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-12
DOI
https://doi.org/10.5281/zenodo.20130294
Primary Topic
Cosmology and Gravitation Theories
Type
preprint
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preprint

Quantum Vacuum Instability, Higgs–Vacuum Coupling, and the Mass Cancellation Regime: An Archival Priority Note within the DVDH Framework

Md. Ra-bi-ul Islam Islam
Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
preprint

Quantum Vacuum Instability, Higgs–Vacuum Coupling, and the Mass Cancellation Regime: An Archival Priority Note within the DVDH Framework

Md. Ra-bi-ul Islam Islam
preprint en

Abstract

Description This archival priority note presents a phenomenological framework for quantum vacuum instability and effective mass suppression within the Dark Vital Dimensional Hypothesis (DVDH). The document introduces the conceptual structure of the Mass Cancellation Regime, a proposed instability boundary arising from coupled interactions between vacuum energy density, matter density, and elevated photonic energy density. Within the framework, the effective mass of a localized system is modeled through a vacuum–field coupling relation in which extreme photonic conditions may drive the system toward an effective mass-nullification limit (M_{\text{eff}} \to 0). The work further outlines the conceptual basis of the Singular Collapse Equation (CGE), Higgs–vacuum drift dynamics, and the role of structured vacuum fluctuations in high-energy environments. This record is intended exclusively as a scientific provenance and chronological priority declaration. It does not claim experimental confirmation or established physical validity. Instead, the framework is presented as a falsifiable, simulation-driven phenomenological extension designed for future observational and computational testing. The archived material includes: - Conceptual derivations related to vacuum-coupled instability dynamics - Preliminary coupling relations and stability formulations - Simulation-assisted analytical structures - Dimensional Stability Index (DSI) development pathways - Links to associated computational repositories and Zenodo archival datasets The framework further proposes testable predictions, including: - Non-Gaussian structured energy spikes in extreme vacuum environments - Observable vacuum drift signatures under intense photonic density conditions - Potential coupling variations linked to Higgs-like scalar dynamics This archival note also establishes formal continuity with the broader DVDH research program, including the Universal Turbulence Law in Entropy–Energy Coupled Systems and related simulation pipelines. All mathematical structures and theoretical constructs presented herein remain under active development and are subject to future refinement, validation attempts, or falsification through observational evidence and computational analysis. Research Group: D³ VITAL-X Author: Md. Ra-bi-ul Islam (R. Islam) Document Type: Archival Priority Note (v0.4) Status: Open Theoretical Framework for Future Investigation Slogan: Transform the World, Illuminate the Future

Zenodo (CERN European Organization for Nuclear Research)
Vital Research (US)
Affordable and clean energy
Cosmology and Gravitation Theories
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