Temporal Texture Gravity — Paper D: Quantum Correlations from Temporal Phase Lock (NSTB Sector)

What if the mystery of quantum entanglement—Einstein’s famous "spooky action at a distance"—could be understood through shared temporal structures rather than superluminal signals? This paper explores the quantum foundations sector of Temporal Texture Gravity, introducing a candidate mechanism called the "Non-Separable Temporal Bubble". It investigates how entangled particles might share a single, spatially extended temporal configuration that coordinates their measurement outcomes while remaining strictly non-signaling at the observable level. The paper frames this mechanism with complete transparency, outlining both its mathematical predictions and its current boundaries: A Shared Temporal Substrate: Proposes that entangled particles are connected through an extended temporal bubble. Under standard quantum probability rules, this shared substrate exactly reproduces quantum correlation laws and the famous Tsirelson bound for quantum measurement limits. Strict No-Signaling Discipline: Addresses the fundamental requirement that quantum correlations must never allow faster-than-light communication. The paper documents an internal refutation of an earlier model version that leaked information, establishing the exact mathematical conditions required to keep hidden non-local states completely unreadable to outside observers. Gravitational Test Signatures: Examines how quantum bubbles interact with gravitational curvature (such as around black holes or massive bodies). The paper derives three distinct structural signatures—a "magic angle" where tidal distortions cancel out, an isotropy null where symmetric bubbles decouple, and a clear separation between phase shifts and visibility loss. Presented as an exploratory candidate extension rather than a derived result of the core action, this paper establishes a rigorous roadmap for bridging temporal geometry with quantum non-locality.