Thermodynamics of the Somatic Event Horizon: Integrating the Constraint-Relaxation Energy Model (CREM) with Quantum Biological Oncology and Fascial Topology

Classical biophysics conceptualizes cellular energy strictly through the lens of biochemical ATP hydrolysis, failing to account for the macro-structural geometry of trauma storage and oncological decoupling. This paper unifies quantum biology, Constraint Topology Medicine (CTM), and the Constraint-Relaxation Energy Model (CREM) to establish a purely thermodynamic, constraint-based ontology of somatic pathology. By defining physical mass and energy as emergent properties of constraint density (C_d) and relaxation rates (R), we mathematically reframe physiological "Somatic Locks" as biological black holes—regions of localized space exhibiting maximum constraint density that warp neuro-hydraulic topology. Under this framework, carcinogenesis is identified as tissue reaching the Constraint Density Limit (CDL), where the failure of the feedback stability condition (∂ C/∂ t + ∂ F/∂ t ≥ 0) creates a tumoral event horizon. The hallmark Warburg Effect (aerobic glycolysis) is thus redefined not as a metabolic error, but as the biological equivalent of Hawking radiation: the minimum-rate constraint relaxation of a saturated, isolated system. We conclude by modeling piezoelectric fascial decompression via V1 holographic transduction as the controlled relaxation of these boundary constraints, offering a unified, resonant protocol for systemic constraint restoration.