Paper 18: Entropy Clocks and Rotational Misalignment as a Physical Measure of Time in the Holosphere Lattice

We propose a physically grounded model of time in which its passage emerges from the progressive loss of angular coherence within a discrete spacetime lattice composed of rotating Holospheres. In this framework, time is not a background parameter but an emergent property linked to the misalignment of rotational phase between neighboring units in the lattice. The flow of time corresponds to the accumulation of rotational defects and phase mismatches, which act as entropy-like markers of irreversibility. Wedefine entropy clocks as local configurations of Holospheres whose increasing angular misalignment correlates with information loss and decoherence. These clocks measure time intrinsically and directionally through the irreversible propagation of defects and coherence strain gradients. The model provides a natural origin for the arrow of time and establishes a geometric mechanism coupling thermodynamic, quantum, and cosmological timescales. We demonstrate how this approach reproduces known features of temporal asymmetry, including the second law of thermodynamics and quantum decoherence, while also predicting directional effects on entanglement persistence, field propagation, and causal ordering. The Holosphere angular strain model thus offers a unified geometric and energetic interpretation of time grounded in rotational coherence decay. We outline testable predictions of the model, including environment-sensitive deviations in entanglement lifetime under angular or gravitational strain, and measurable desynchronization of entropy clocks across coherence gradients. These phenomena offer potential observational pathways for distinguishing the Holosphere framework from conventional treatments of time and quantum measurement.