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

Abstract 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 (\partial C/\partial t + \partial F/\partial t \geq 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.