This paper formalizes the observational signatures of the Curvature Brake mechanism within the CCEGA framework. Following the resolution of the 35% critical density discrepancy in Part VI, we perform a comparative residual analysis using NICER data for PSR J0740+6620 and PSR J0437-4715. We demonstrate that while standard General Relativity (GR) requires extreme fine-tuning of Equations of State (EoS) to support M > 2 M_ pulsars, CCEGA achieves a statistically superior fit (² 0. 001) by modulating the gravitational coupling G₄₅₅. Furthermore, we derive explicit falsification criteria based on the predicted radius plateau (12. 4 km) and gravitational wave echo delays (10–15 ms) accessible to the Einstein Telescope and LIGO O5.
Marc López Sánchez (Thu,) studied this question.