This paper develops the substrate‑native geometric principles governing molecular stabilization within the MID/QC Framework. Stabilization is interpreted as the emergent behavior of coherence well geometry, torsillation‑aligned tension distribution, boundary curvature, and gradient‑driven alignment. The work generalizes the substrate mechanics underlying catalytic and enzymatic behavior (Series Papers 1 and 2) and extends the architectural foundations introduced in Paper 3 (Field‑Aligned Molecular Assembly). The paper establishes how coherence gradients regulate molecular stability, how torsillation tension shapes conformational robustness, and how boundary‑driven curvature influences structural persistence. These principles provide a unified substrate‑native explanation for molecular rigidity, conformational locking, stabilization under external fields, and gradient‑biased structural persistence. The work forms a conceptual bridge between molecular‑scale stabilization mechanics and downstream engineering domains including materials design, photonic structures, and coherence‑aligned fabrication systems.
Chadwick Rasque (Fri,) studied this question.