The Breathing Universe: 203_Comparative Cosmogenesis

This monograph presents a systematic comparative analysis of three cosmological frameworks that aim to describe the origin, evolution, and large-scale structure of the Universe: standard Lambda-CDM cosmology; Direct Nested Snapping (DNS); and Time-Crystal Nested Snapping (TC-NS), both developed within the Breathing Universe Model (BUM). While all three reproduce the observed expanding, cooling, and gravitationally structuring cosmos, they differ fundamentally in how vacuum energy, cosmic acceleration, entropy production, and the arrow of time arise. Lambda-CDM is treated as the empirical benchmark, providing an accurate phenomenological description based on a constant cosmological constant but leaving its physical origin unexplained. DNS replaces the Big Bang singularity and static vacuum energy with a sequence of finite, causal tension-release events (“snaps”), in which stored monopole tension is converted into discrete increments of vacuum energy. TC-NS extends this mechanism by introducing a coherent, oscillatory pre-phase of the vacuum, modeled as a time-crystal lattice whose rhythmic tension dynamics imprint smooth, quantized modulations on cosmic expansion. The three frameworks are formulated within a unified mathematical structure, demonstrating that Lambda-CDM emerges as the zero-amplitude, continuous limit of DNS, while TC-NS represents the coherent limit of many small, nested snaps. The analysis evaluates each model’s ability to resolve key cosmological paradoxes, including the initial singularity, the low-entropy initial state, the arrow of time, the cosmological-constant problem, fine-tuning and coincidence, and the H0 and sigma8 tensions. Finally, the work identifies concrete, falsifiable observational signatures across multiple probes, including background expansion, structure growth, cosmic microwave background correlations, gravitational-wave spectra, and pulsar-timing arrays. By embedding standard cosmology within a broader hierarchy of tension-driven dynamics, this comparative study reframes cosmic expansion as an emergent, self-regulating process and positions the Breathing Universe Model as a testable extension rather than a replacement of Lambda-CDM.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-18
DOI
https://doi.org/10.5281/zenodo.17387042
Primary Topic
Cosmology and Gravitation Theories
Type
article
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article

The Breathing Universe: 203_Comparative Cosmogenesis

Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
article

The Breathing Universe: 203_Comparative Cosmogenesis

article en

Abstract

This monograph presents a systematic comparative analysis of three cosmological frameworks that aim to describe the origin, evolution, and large-scale structure of the Universe: standard Lambda-CDM cosmology; Direct Nested Snapping (DNS); and Time-Crystal Nested Snapping (TC-NS), both developed within the Breathing Universe Model (BUM). While all three reproduce the observed expanding, cooling, and gravitationally structuring cosmos, they differ fundamentally in how vacuum energy, cosmic acceleration, entropy production, and the arrow of time arise. Lambda-CDM is treated as the empirical benchmark, providing an accurate phenomenological description based on a constant cosmological constant but leaving its physical origin unexplained. DNS replaces the Big Bang singularity and static vacuum energy with a sequence of finite, causal tension-release events (“snaps”), in which stored monopole tension is converted into discrete increments of vacuum energy. TC-NS extends this mechanism by introducing a coherent, oscillatory pre-phase of the vacuum, modeled as a time-crystal lattice whose rhythmic tension dynamics imprint smooth, quantized modulations on cosmic expansion. The three frameworks are formulated within a unified mathematical structure, demonstrating that Lambda-CDM emerges as the zero-amplitude, continuous limit of DNS, while TC-NS represents the coherent limit of many small, nested snaps. The analysis evaluates each model’s ability to resolve key cosmological paradoxes, including the initial singularity, the low-entropy initial state, the arrow of time, the cosmological-constant problem, fine-tuning and coincidence, and the H0 and sigma8 tensions. Finally, the work identifies concrete, falsifiable observational signatures across multiple probes, including background expansion, structure growth, cosmic microwave background correlations, gravitational-wave spectra, and pulsar-timing arrays. By embedding standard cosmology within a broader hierarchy of tension-driven dynamics, this comparative study reframes cosmic expansion as an emergent, self-regulating process and positions the Breathing Universe Model as a testable extension rather than a replacement of Lambda-CDM.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 48%
Cosmology and Gravitation Theories
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