An effective cosmological framework for cyclic cosmological evolution, inherited physical sectors, rotational dynamics, and holographic transition physics.
Holographic Rotation-Driven Cyclic Cosmology (HRDCC) is an effective cosmological framework that explores the possibility that cosmological evolution proceeds through successive cycles connected by a regularized Holographic Transition Core (HTC).
The framework combines cyclic cosmological evolution with a parent-black-hole interpretation, inherited physical sectors, effective rotational dynamics, and holographic transition physics. Rather than treating dark matter, relic particle populations, primordial perturbations, black-hole interior dynamics, and selected particle-physics properties as completely independent problems, HRDCC investigates whether they may represent interconnected manifestations of a common effective cosmological state.
The present framework is intentionally developed at multiple levels of description. Effective cosmological dynamics are distinguished from their possible microscopic interpretations, while observational consequences are treated separately from the assumptions and mechanisms from which they arise.
HRDCC is currently developed as a theoretical and phenomenological research framework rather than as a completed fundamental theory. Several microscopic mechanisms remain open research problems, and quantitative numerical implementation is still required in important sectors.
The publication program therefore distinguishes explicitly between assumptions, effective physical interpretations, phenomenological relations, and observable consequences.
Successive mature cosmological cycles form the long-term evolutionary setting of the framework.
The regularized HTC acts as the central geometrical interface connecting successive cosmological cycles.
Selected effective physical degrees of freedom may persist across successive cosmological cycles through the HTC.
A rotational energy reservoir associated with the parent black hole contributes to the effective cosmological dynamics and long-term phase evolution.
Dark matter, dark energy, relic backgrounds, and related sectors are introduced first at the phenomenological level and only subsequently assigned possible microscopic interpretations.
The framework identifies potential signatures across CMB, large-scale structure, relic backgrounds, gravitational waves, and other observational channels.