T31b – Experimental Pathways to Triadic Coherence: Physical Analogues of Angular Memory and Self-Healing Strain in the Holosphere Lattice

This paper presents experimental pathways for validating Holosphere Theory’s prediction of real triadic rotation and coherence-based stabilization. Building on the theoretical (T29), mathematical (T30), and computational (T31a) foundations of angular memory in a discrete rotating lattice, Paper T31b maps key Holosphere concepts—phase locking, defect emission, coherence recovery, and topological closure—onto three experimental platforms: Josephson junction networks, gyroscopic metamaterials, and coupled optical cavities. These systems exhibit behaviors that mirror angular coherence dynamics, including quantized winding number evolution, defect-like propagation, and 4π reclosure. We propose specific perturbation and detection protocols for each platform and identify observable signatures of coherence restoration and structural memory. By tuning phase stiffness and inducing localized strain, these experiments can test whether self-healing coherence is a fundamental organizing principle across quantum, mechanical, and photonic regimes. This paper completes a four-part arc from theoretical proposal to experimental accessibility and outlines a multi-platform framework for falsifying or validating Holosphere Theory through direct observation.