The Mechanical Framework of Computational Spacetime: Resolving the CMB, Angular Momentum, and Time Dilation via Rendering Latency

Abstract

The standard cosmological model (ΛCDM) relies on inflationary parameters and hypothetical dark components to reconcile observations with General Relativity. This paper introduces a deterministic, parameter-free mechanical framework operating on the principles of digital physics and information theory. We model the universe as a bounded computational spatial grid (the NavMesh) initialized by a central energetic axis (the "Kernel"). By redefining the Big Bang as the annihilation exhaust of a primordial quantum centrifuge (the "Cosmic Blender"), we derive the Cosmic Microwave Background (CMB) acoustic peaks as mechanical rebound interference from spatial boundary anchors. Furthermore, we isolate galactic angular momentum to a primordial "Kinetic Boomerang" effect, while defining time not as a fundamental dimension, but as computational friction—a latency effect against the Planck frequency baseline. This conceptual framework effectively bridges quantum mechanics and macroscopic spacetime, establishing the theoretical foundation for computational kinematics (The Phantom Metric) [1].