Resonant Cavity Mutation Architecture (RCMA): A Resonant Cavity Approach to Quantum Vacuum Mutation and Emergence
Year: 2025
Type: article
Abstract: Resonant Cavity Mutation Architecture (RCMA) is a theoretical framework proposing that atomic matter and the quantum vacuum share a resonance-based relationship. Within this view, the vacuum is treated not as an empty background, but as a structured energetic substrate capable of supporting localized, resonant excitations under appropriate boundary and excitation conditions. Various high-energy and strong-field experiments that report long-lived particle–antiparticle pair emergence, such as electrons and positrons, as well as photon emission events, are interpreted here as indications that atomic matter and the quantum vacuum may share an underlying resonance basis. While photons are massless field excitations rather than particles with rest mass, their emission during vacuum-excitation processes is taken as evidence of energy release from structured vacuum states, reinforcing the premise of a non-empty quantum vacuum. RCMA extends this interpretation by proposing that carefully engineered resonant environments—combining electromagnetic, acoustic, and boundary-condition control—may permit controlled interaction with these vacuum-supported modes. The framework does not claim experimental confirmation of matter synthesis beyond established particle–antiparticle pair creation, but instead offers a hypothesis-driven architecture for exploring vacuum–matter coupling through resonance-based experimentation. Revision Note — Version 2 This Version 2 release clarifies the interpretation of referenced experimental results. Specifically, the revision reflects experimentally supported electron–positron pair creation and photon emission under strong-field vacuum excitation. References implying experimental proton emergence from the vacuum have been removed. No conceptual changes to the RCMA framework are introduced in this revision.
Authors: Patterson, David, OpenAI, ChatGPT
Institution: OpenAI (United States)
Language: English
Subfield: Atomic and Molecular Physics, and Optics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7079482406
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