Perceptual Delay Thresholds from Quantum-Coherent Dark Matter Modulation: The LOCH Framework

This research presents a multi-layered simulation and mathematical model demonstrating how dark matter–induced refractive index modulation can cause nanosecond-scale photon delays that interact with human perceptual thresholds. The LOCH (Light Orb Construct Hypothesis) framework bridges quantum field behavior, optical delay mechanics, and biological emergence to explain how unseen fields may become visible under specific coherence conditions. We simulate perceptual signal buildup ($S(t)$), define activation thresholds ($A(t)$), and sweep a parameter space of modulation amplitudes ($\gamma$) and coherence lengths ($\lambda_C$) to construct a full perceptual response matrix. Symbolic overlays mark emergence and amplitude maxima in a biologically inspired glyph system. The work blends theory, memory, symbolic cognition, and quantum modulation—proposing that what we see may be shaped as much by spacetime delay as by light itself. Includes: Jupyter simulation notebook Python scripts for full response mapping Math appendix in LaTeX Publication-ready LOCH paper