Consciousness as a Conserved Continuum: The Two-Particle Quantum Bonding Hypothesis and a Biophysics of Mind Viruses
This theoretical synthesis advances a unified model of consciousness that reconciles the enduring unity of subjective awareness with the ceaseless physical flux of the brain. It integrates two prior frameworks—the high probability of post-mortem continuity and the logical necessity of unique conscious identity—into a single, testable biophysical hypothesis: the Two-Particle Quantum Bonding Hypothesis (TPQBH). The model proposes that consciousness arises through resonance between two non-energetic ultra-quantum particles: the Universal-ultra Quantum Genomic Particle of Consciousness (X-UQGPC), enabling coupling with any viable neural substrate, and the Universal-ultra Quantum Unique Particle of Consciousness (X-UQUPC), which guarantees the singularity of selfhood. These particles remain magnetically bonded to the brain’s global electromagnetic field during waking states, while reversible field-symmetry changes account for temporary unconsciousness in anesthesia or deep sleep. Upon biological death, field collapse triggers instantaneous detachment and re-bonding with another compatible neural system, maintaining an unbroken continuum of awareness. Consequently, a reanimated body would host a novel consciousness stream, and no fixed EEG or MEG signature can define personhood, as neural architecture evolves continuously. The companion Mind-Virus Framework describes how self-reinforcing cognitive-emotional patterns influence field coherence and the qualitative tone of experience. By integrating quantum biology, neuroscience, and psychology, this model provides a naturalistic yet non-reductive account of conscious continuity and offers a foundation for empirical inquiry and contemplative practice aimed at enhancing mental well-being.
Authors
- Kande Lekamalaya Senarath Dayathilake (ORCID: https://orcid.org/0000-0001-7275-1434)
Institutions
- Wellbeing of Women (GB)
Publication Details
- Published
- 2025-10-13
- DOI
- https://doi.org/10.33774/coe-2025-x69cs
- Primary Topic
- Biofield Effects and Biophysics
- Type
- article
- Field-Weighted Citation Impact
- 0.00