The Cyclic Cosmic Condenser
This paper introduces the Cyclic Cosmic Condenser (CCC) framework, an independent theoretical model proposing a non-linear alternative to the standard ΛCDM paradigm. The framework posits that spacetime is an active, dynamic thermodynamic phase generated directly by mass density rather than a static backdrop undergoing global kinematic stretching. Inside gravitationally bound systems, metric expansion is suppressed, whereas the surplus of generated space is systematically expelled into intergalactic voids, which act as active receiving sinks. This mass-induced metric emergence naturally accounts for the phenomenon conventionally attributed to "dark energy" without invoking a cosmological constant (Λ) or an inflaton field.Furthermore, the model defines dark matter not as an undiscovered particle, but as the gravitational projection of mass residing within hidden extra dimensions of a singular underlying carrier of reality, termed the Substrate. Black holes are examined as extreme metric generators that facilitate a thermodynamically closed cosmic cycle, wherein matter undergoes a reversible phase transition back into the ground state of the Substrate, preserving structural entropy and information via holographic area laws on the event horizon.The framework establishes a scale-invariant mechanism of phase release and is evaluated against key modern observational anomalies. It offers a resolution of the Hubble tension by treating H₀ as a local property of structured media, addresses the constraints of cosmologically coupled black holes (CCBH), the ≈ 50-fold mass deficit associated with the Great Attractor, and the cosmological horizon problem through a singular point-like origin of the cosmic phase transition (the Great Decondensation) — without requiring cosmic inflation.
Authors
- Eduard Kolantarov
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-10-13
- DOI
- https://doi.org/10.5281/zenodo.23350943
- Primary Topic
- Cosmology and Gravitation Theories
- Type
- preprint