Microscopic Foundations of the HRDCC Framework

Abstract

The microscopic physical foundations of the Holographic Rotation-Driven Cyclic Cosmology (HRDCC) framework are investigated by examining the internal physical processes associated with the Holographic Transition Core (HTC). Whereas previous papers established the effective cosmological framework, its phenomenological components, interior horizon dynamics, rotational evolution, and observational consequences, the present work focuses on the microscopic mechanisms that may underlie these effective descriptions. Within HRDCC, the HTC is interpreted as the central geometrical interface through which effective physical continuity is maintained across successive cosmological cycles. Building upon this interpretation, a phenomenological microscopic architecture is developed in which holographic information encoding, operator-based state mapping, microscopic inheritance, and topological information storage are considered within a unified conceptual framework. Possible physical roles of Kerr/CFT correspondence, holographic encoding, spin-network structures, Calabi--Yau compactification, ER=EPR, Page dynamics, and Stinespring-type information transfer are examined as complementary ingredients without assuming a complete quantum-gravitational unification. The resulting description does not attempt to construct a fundamental Hilbert-space formulation or a complete microscopic Hamiltonian theory. Instead, it organizes microscopic concepts that may consistently account for the emergence and persistence of the effective cosmological sectors introduced throughout the HRDCC publication program. The present work therefore proposes a coherent phenomenological microscopic architecture connecting the established effective cosmological description with potential underlying degrees of freedom, while identifying the theoretical developments required for future quantitative formulations. This manuscript constitutes the first paper of the HRDCC publication program. It is distributed as a preprint and has not undergone formal peer review.