This paper presents a structural framework for interpreting compact object merger dynamics within the Scalar Drag Emergence Framework (SDEF). In this formulation, coherence-saturated regions are described as domains of reduced transport accessibility, and their interaction is governed by reconfiguration of transport pathways rather than externally imposedinteraction mechanisms. As interacting regions approach, their transport structures couple and undergo accelerated reorganization, producing observable signal features. In non-symmetric configurations, this process proceeds through multiple stages, leading to temporally clustered and multi-phase behaviour in the gravitational-wave signals. Observable features such as transient bursts, frequency evolution, and multi-phase structure are inetrpreted as consequence of evolving accessibility and pathway geometry. The framework predicts that structural transitions should appear as temporally localized, clustered events in the signal. These predictions are operationally connected to the companion methodology that detects coherent gradient structures in garvitational-wave strain data using density-based clustering approach.. This establishes a direct link between theoretical interpretation and empirical analysis. The work is interpretive and complementary to existing waveform-based approaches, providing a geometry-driven perspective on signal structure and its evolution during merger events.
Pej Evan Bartolo (Sun,) studied this question.