Impulse-Based Entropy and Chronospheric Information Structures within the Alpha-Omega Framework

Quantum mechanics exhibits two fundamentally distinct probability frameworks: one based on particle motion and another arising from wave interference. Recent developments propose a new concept of impulse-based entropy to account for the local structure of impulse interactions. In this paper, we integrate the notion of impulse-based entropy into the Alpha-Omega Theory, which describes reality as emerging from the interference of chronological potentials representing past and future states. We formally derive the impulse entropy within the context of temporal interference and demonstrate its role in the fine-grained architecture of spacetime. Furthermore, we outline experimental strategies for detecting dual entropy structures in quantum systems. This work provides a unified perspective on entropy, information flow, and the fundamental structure of reality. For more information about the Alpha-Omega Theory, please refer to related publications by the author.