Generalized Engineering Embodiments, Industrial Processes, and Prior Art Disclosure of Resonant Mass Systems

[Superseded version. Please refer to the latest one.] ABSTRACT This technical report constitutes a comprehensive disclosure of the engineering landscape derived from the "Geometric Model of Physical Interactions" (Roca, 2025). It identifies theoretically derived mass-energy regimes—specifically the Resonant Mass (m_phi approx 4.157 × 10^–9 kg), the Transition Mass (m_z approx 1.86 × 10^–9 kg), and the Structural Cost Mass (m_s approx 3.718 ng)—where the coupling between matter and the structural tension of the vacuum (U) exhibits non-linear anomalies. LEGAL DISCLAIMER AND SCOPE This document defines GENERALIZED CLASSES of technology across Energy, Navigation, Materials, Computation, AI, Chemistry, and Thermodynamics. This is a defensive publication or preventive disclosure derived from the theoretical context, aimed at placing all methods of exploiting these anomalies into the PUBLIC DOMAIN. While specific hardware implementations for inertial sensing are subject to concurrent patent examination (OEPM, Dec 2025), the broad physical principles, methods of operation, and generalized applications described herein are explicitly disclosed to establish PRIOR ART. By publishing these designs, the author ensures that the potential applications of this theoretical framework remain accessible as Public Domain knowledge and are not preemptively monopolized by broad patent claims. The validity of the engineering embodiments described herein relies on the phenomenological existence of the mass anomalies, independent of the ultimate correctness of the theoretical model used to derive them.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-07
DOI
https://doi.org/10.5281/zenodo.17848497
Primary Topic
Complex Systems and Dynamics
Type
article
Field-Weighted Citation Impact
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article

Generalized Engineering Embodiments, Industrial Processes, and Prior Art Disclosure of Resonant Mass Systems

Zenodo (CERN European Organization for Nuclear Research)
Complex Systems and Dynamics
article

Generalized Engineering Embodiments, Industrial Processes, and Prior Art Disclosure of Resonant Mass Systems

article en

Abstract

[Superseded version. Please refer to the latest one.] ABSTRACT This technical report constitutes a comprehensive disclosure of the engineering landscape derived from the "Geometric Model of Physical Interactions" (Roca, 2025). It identifies theoretically derived mass-energy regimes—specifically the Resonant Mass (m_phi approx 4.157 × 10^–9 kg), the Transition Mass (m_z approx 1.86 × 10^–9 kg), and the Structural Cost Mass (m_s approx 3.718 ng)—where the coupling between matter and the structural tension of the vacuum (U) exhibits non-linear anomalies. LEGAL DISCLAIMER AND SCOPE This document defines GENERALIZED CLASSES of technology across Energy, Navigation, Materials, Computation, AI, Chemistry, and Thermodynamics. This is a defensive publication or preventive disclosure derived from the theoretical context, aimed at placing all methods of exploiting these anomalies into the PUBLIC DOMAIN. While specific hardware implementations for inertial sensing are subject to concurrent patent examination (OEPM, Dec 2025), the broad physical principles, methods of operation, and generalized applications described herein are explicitly disclosed to establish PRIOR ART. By publishing these designs, the author ensures that the potential applications of this theoretical framework remain accessible as Public Domain knowledge and are not preemptively monopolized by broad patent claims. The validity of the engineering embodiments described herein relies on the phenomenological existence of the mass anomalies, independent of the ultimate correctness of the theoretical model used to derive them.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 37%
Complex Systems and Dynamics
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