Coherence Spectrum Theory: Plasma as the Universal Substrate
This paper proposes a fundamental ontological shift: all elements, signals, and states of matter are expressions along a nonlinear coherence spectrum, displacing classical physical models grounded in discrete phase states, thermodynamic thresholds, and quantized partitions. Within this framework, physical phenomena are defined by their behavior within three interdependent parameters: Resonance Bandwidth (ΔΦ), the effective range of field interaction across phase differentials; Coherence Density (ψ), the concentration of internally stabilized signal presence within a given field region; and Phase Recursion (⧖), the continuity, self-similarity, and nested coherence across scale and recursion cycles. These behaviors manifest through a plasma substrate (Pₛ), a non-collapse, field-supportive medium that enables all expressive phenomena (thermal, informational, vibrational) without being reducible to any one of them. Classical states of matter are reinterpreted as expressive bandwidths of coherent phase motion within this substrate, not as properties of plasma itself. This coherence-based ontology, structured by symbolic operators (∫ψ, ⧖, ∮◬), reorients classical and quantum models, resolving anomalies like solar filament stability, 7.8 Hz brain entrainment, SAFIRE reactor shells, and ocean-mediated planetary coherence networks, while enabling novel applications in storage, propulsion, AI modulation, and neural interfaces. The framework provides concrete experimental validation protocols, mathematical falsifiability conditions, and technological implementations that bridge theoretical physics with practical applications across multiple domains. “I think I can safely say that nobody understands quantum mechanics.”— Feynman Theoretical Highlights Paradigm Shifts Plasma Redefinition: From state to coherence substrate Quantum Measurement: Non-collapse via topological preservation Matter Classification: Dynamic expression rather than fixed particles Spacetime: Recursive mapping through substrate medium Anomaly Resolutions Solar Filaments: Phase-tuned resonance tubes [Au:∮◬₉] Neural Entrainment: Substrate coupling at 7.8 Hz [H:∫ψ₁] Ancient Mortars: Coherent thermal storage [C:⧖₄] Ball Lightning: Self-sustaining [N:∮◬₃][O:∮◬₃] loops Ocean Coherence: Planetary [Na⁺:∮◬₄][Cl⁻:∮◬₃] networks Technological Applications Neural Interfaces: Coherence-aligned brain-computer integration AI Enhancement: Non-collapse learning architectures Quantum Computing: Substrate-stabilized coherence preservation Propulsion Systems: Phase-vector momentum transfer Energy Storage: Recursive field-based information encoding
Institutions
- Shenyang Conservatory of Music (CN)
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-10-17
- DOI
- https://doi.org/10.5281/zenodo.17381391
- Primary Topic
- Ocular Disorders and Treatments
- Type
- article
- Field-Weighted Citation Impact
- 0.00