Modern cosmology and quantum mechanics are constrained by structural inconsistencies, requiring arbitrary physical constructs such as Dark Matter, Dark Energy, and wave-function collapse to reconcile continuous mathematics with empirical observations. This paper presents a unified digital physics framework, modeling physical reality as a discrete computational rendering execution loop running on a non-local grid geometry (the NavMesh). By enforcing an information-theoretic data-packing constraint derived from the Golden Ratio (𝜑), we extract the universe's hardware base clock speed, the Server Tick (אc = 8. 72282 x 10^-19 seconds). We formulate a Unified Rendering Equation (Rconso) that integrates global expansion and local general relativity as nested computational latencies, deriving the terrestrial observer's processing rate (Rconsoₑarth = 8. 71109 x 10^-19 seconds). Based on this framework, we resolve the Hubble Tension as an algorithmic artifact of localized clock drift and redefine galactic rotation curves as a "Lazy Evaluation" optimization below the floating-point resolution floor (a0). Finally, we propose a definitive, falsifiable experiment: measuring the discrepancy of quantum "negative delay" time-stamps between Earth's surface and orbit (ISS), presenting a direct challenge to the global physics community to test this model's quantitative predictions.
Tomer Haimovich (Tue,) studied this question.