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HRDCC framework details
- HRDCC landing page
- « The HRDCC Publication Program »
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Paper pages
- Paper I. - Holographic Rotation-Driven Cyclic Cosmology (HRDCC): A Unified Dynamical Framework for Cyclic Cosmology
- Paper II. - Planck Remnants and the Origin of Cold Dark Matter within the HRDCC Framework
- Paper III. - Inherited Cosmic Neutrino Background within the HRDCC Framework
- Paper IV. - Black Hole Interior Dynamics and Horizon Mechanics within the HRDCC Framework
- Paper V. - Primordial Perturbations, Chladni Resonances and Non-Gaussianity within the HRDCC Framework
- Paper VI. - Observational Tests of the HRDCC Framework: Effective Cosmological Signatures from CMB to Next-Generation Surveys
- Paper VII. - Rotational Dynamics and Phase Reversal within the HRDCC Framework
- Paper VIII. - Microscopic Foundations of the HRDCC Framework
- Paper IX. - Effective Particle Physics across Successive Cosmological Cycles within the HRDCC Framework
Research & Profiles
- All HRDCC papers are released as openly accessible preprints with persistent DOI records.
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ORCID 0009-0008-0372-3243
- Hungarian Astronomical Association
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The HRDCC Publication Program
Conceptual Architecture
A simplified map of the principal physical layers developed across the HRDCC publication program.
| Parent Black Hole » Rotational Energy Reservoir » Holographic Transition Core » Inherited Physical Sectors » Effective Cosmological Dynamics » Observable Signatures |
The Papers of HRDCC Publication Program
Paper I. - Holographic Rotation-Driven Cyclic Cosmology (HRDCC): A Unified Dynamical Framework for Cyclic Cosmology
Introduces the core effective cosmological framework of HRDCC. It establishes the principal phenomenological architecture, including cyclic cosmological evolution, effective cosmological components, the role of rotation, and the Holographic Transition Core. Later publications develop individual physical sectors without redefining this effective foundation.
Paper II. - Planck Remnants and the Origin of Cold Dark Matter within the HRDCC Framework
Develops a microscopic interpretation of the effective cold-dark-matter sector introduced in Paper I. Stable Planck remnants are considered as a population inherited across successive cosmological cycles through the regularized HTC. The paper examines how such a cumulative remnant population may reproduce the phenomenological role of cold dark matter.
Paper III. - Inherited Cosmic Neutrino Background within the HRDCC Framework
Extends the inheritance concept to the cosmic neutrino sector. The paper develops an inherited Cosmic Neutrino Background and examines its possible contribution to an effective warm-dark-matter component. It also introduces the Neutrino Valve interpretation in connection with entropy regulation across cosmological transitions.
Paper IV. - Black Hole Interior Dynamics and Horizon Mechanics within the HRDCC Framework
Examines the black-hole interior physics underlying the transition architecture of HRDCC. Particular attention is given to mass inflation, effective Cauchy-horizon regularization, the Holographic Transition Core, rotational energy storage, and horizon information mapping.
Paper V. - Primordial Perturbations, Chladni Resonances and Non-Gaussianity within the HRDCC Framework
Develops the effective primordial perturbation sector of HRDCC. Chladni resonances are introduced as an effective geometrical modulation mechanism capable of producing phase-correlated perturbations and potentially distinctive non-Gaussian signatures.
Paper VI. - Observational Tests of the HRDCC Framework: Effective Cosmological Signatures from CMB to Next-Generation Surveys
Organizes the principal observational consequences of the framework into a common testing strategy. CMB polarization, large-scale structure, BAO, weak lensing, gravitational-wave backgrounds, relic backgrounds, and next-generation surveys are treated as complementary observational channels rather than isolated tests.
Paper VII. - Rotational Dynamics and Phase Reversal within the HRDCC Framework
Develops the rotational dynamical sector that was introduced phenomenologically in Paper I. The paper examines the rotational energy reservoir, effective flywheel behavior, rotational support, and the conditions under which declining rotational support may produce cosmological phase reversal and long-term cyclic evolution.
Paper VIII. - Microscopic Foundations of the HRDCC Framework
Investigates possible microscopic foundations of the framework. The HTC is examined as a geometrical and information-processing interface involving holographic encoding, operator-based mappings, physical continuity, and possible topological organization through quantum-geometrical structures.
Paper IX. - Effective Particle Physics across Successive Cosmological Cycles within the HRDCC Framework
Extends the effective phenomenological architecture to selected particle-physics sectors. The electroweak hierarchy, flavor structure, Strong CP problem, primordial nuclear physics, proton stability, and cosmic chemical evolution are treated as complementary manifestations of a common ξ-dependent effective particle-physics sector rather than as independent cosmological problems.
The HRDCC publication program progresses from effective cosmological dynamics, through physical and microscopic interpretation, toward observational and particle-physics consequences.
Research Approach
HRDCC does not seek to replace established physical theories where they are successful. Instead, it investigates whether insights from complementary areas of gravitational physics, cosmology, quantum information, and particle physics can be organized within a consistent effective architecture addressing questions that remain open when these domains are treated independently.