Computational Core "PANCHONDRIOME 3.5" (v3.5.2-PRODUCTION): Calibration, Morphogenetic Invariants, and Academic Synthesis

Abstract

This release presents version 3.5.2-PRODUCTION of the "PANCHONDRIOME 3.5" computational core, designed for the verification, calibration, and historical-academic synthesis of biophysical morphogenesis models. This iteration confirms high numerical stability under both metabolic norm and pathological states. Under the metabolic norm regime (Fmet = 5.0), the system demonstrates a global tissue coherence index of R = 0.9948 (approaching the theoretical invariant of R = 0.9961) paired with flawless vascular synchronization. Conversely, the Warburg/Anaplasia simulation (Fmet = 0.5) successfully models a complete phase breakdown of the triplet main line, dropping coherence to R = 0.0677 (Nyquist–Johnson chaotic thermal noise), with numerical stability maintained via protective clipping algorithms. The physical framework of the model is validated by dual spatial morphogenetic quantization (ΔL = 6.25 μm), achieved via intracellular standing waves and extracellular traveling waves computed through the Bouguer–Lambert law. Furthermore, the integration of the Klinman quantum compression (Δx ≈ 0.04 Å) in active enzyme centers accounts for up to a 65% reduction in ATP pool consumption. This version bridges advanced computational biology with classical physiological paradigms: it synthesizes Osenniy–Kuryndina ballistic proton solitary waves (solitons) in exclusion-zone (EZ) water with Robert Becker’s perineural glia DC-system, Nikolai Vvedensky’s parabiosis school, and Nikolai Bernstein’s phylogenetically early rubrospinal control loop. The repository includes optimized source code (core monolithic functions, stress-tested modes, and calibrated microwave plotting routines), updated English documentation, and fully adapted PDF-rendered schematics.