FFC's Quantum Biology Anomaly Dissolutions (QBD)
The Quantum Biology Anomaly Dissolutions expands FFC's dissolution framework to 15 anomalies in biological coherence and enzyme dynamics, such as quantum effects in photosynthesis coherence (ScienceABC recent 2025 updates; e.g., UChicago Aug 2025 on quantum medicine potential) and tunneling in enzyme reaction rates (2025 studies, e.g., bioRxiv Feb 2025 on quantum logic in triosephosphate isomerase), reinterpreting these >2-4σ deviations (e.g., 3σ quantum beats in FMO complex, Nature 2025 investigations) as emergent manifestations of probability wave E modulations (Glossary Item 3) and biological influences (Glossary Item 6). These anomalies, spanning meso-scale biology (e.g., bird magnetoreception quantum compass, The Guardian Mar 2025; olfactory receptor quantum vibrations, Digitalis Ventures Apr 2025), are dissolved through entropic cohesion (Glossary Item 16) and fractal path nondifferentiability (Glossary Item 2), without classical-quantum patches or exotic mechanisms. Grounded in prior categories (e.g., FFC 5 Atomic Molecular (AMD) via Rydberg analogs for molecular coherence, Neutrino Resolution (NAR #6) for ultrasound-triggered alterations linking to enzyme tunneling), each dissolution derives from core axioms like golden ratio φ optimizations (Glossary Item 17) and tension T in bio-V (Glossary Item 9), unifying quantum biology (e.g., DNA charge transfer, ScienceDirect 2025) with observable efficiencies (e.g., radical pair in avian compass, QuantumZeitgeist Sep 2025). The format upholds consistency: scope for recasting; assumptions with links; 5-step symbolic emergence; validation with 2025 data (e.g., Phys.org Feb 2025, arXiv Jul 2025); cross-links; and falsifiability for emerging tests (e.g., Gordon Research Conference 2025 on QB). This category transitions to Experimental/Observational nulls (EOD), illustrating FFC's dissolution of quantum biology "anomalies" as inherent wave-field processes in living systems.
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-10-07
- DOI
- https://doi.org/10.5281/zenodo.17282799
- Primary Topic
- Genomics and Phylogenetic Studies
- Type
- article
- Field-Weighted Citation Impact
- 0.00