Version 3.2 introduces scope clarification, operational separation, and interpretive alignment refinements while preserving the underlying mathematical framework and physical postulates established in earlier versions. This framework presents a coherence-based interpretation of gravitational behaviour across multiple observational scales. Its purpose is to define how organised gravitational structure may emerge, persist, and transition under changing coherence conditions while preserving Newtonian behaviour in strongly coherent regimes. The framework is explanatory in scope and is intended to provide a physically conservative interpretation of regime-dependent gravitational organisation. The present work does not define operational navigation behaviour, trajectory selection, or diagnostic control systems. Coherence is not assumed to be directly observable; rather, it is inferred indirectly through observable behaviour, including changes in organisational persistence, kinematic structure, and signal propagation characteristics. Any operational systems that evaluate such behaviour does so independently through diagnostic interpretation rather than direct physical measurement of coherence itself. The characteristic transition scales discussed in this framework may invite comparison with MOND-like approaches. However, the present framework differs fundamentally in interpretation and construction. Rather than modifying the underlying gravitational law below a threshold acceleration, the framework interprets observed transitions as coherence-regulated changes in organisational regime within a conserved gravitational fabric. Most importantly, the distinction is architectural rather than merely mathematical: the framework is explicitly constructed as a hierarchical, scale-consistent interpretation extending across inner-disk, circumgalactic, and large-scale regimes without requiring separate modifications in different domains.