Cayden's Hope: Unifying Quantum Spacetime Mechanics and Macroscopic Cosmology Through a Closed T4 Manifold

I present Cayden’s Hope, an independent theoretical framework unifying Loop Quan- tum Cosmology (LQC) with a closed 4-torus (T4) spatial geometry to resolve the cosmic singularity and entropy accumulation paradoxes inherent in classical cyclic models. By lever- aging the upper limit on energy density ρcrit ≈ 0.41 Planck imposed by quantum geometry, the cosmic scale factor avoids a(t) → 0, executing a non-singular quantum bounce. Entropy generation across successive cycles is regularized via localized event horizon thermodynamic freezing inside primordial black holes during late-stage collapse, maintaining global entropy bounded as Sbounce ≪ Smax. We derive the full tensor field equations, Mukhanov-Sasaki perturbation spectra, operational shear defenses, comparative matrices, and observational tests alongside Penrose’s Conformal Cyclic Cosmology (CCC) and the Steinhardt-Turok Ekpyrotic model. Version 3 Update: This release adds the formal Observational Alignment Appendix, mapping the framework's core predictions against recent data releases from Planck/WMAP archives, Euclid (Q1/Q2), Rubin LSST (DP1/EDP2), and the Simons Observatory. Current survey constraints—including the infrared horizon cutoff (ell_cutoff ≈ 22), topological matched-circle geometry (α ≈ 18.4°), and tensor spectral index bounds (nT ≈ -0.002)—demonstrate full consistency with the LQC bounce geometry and T^4 topology.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-28
DOI
https://doi.org/10.5281/zenodo.23720675
Primary Topic
Cosmology and Gravitation Theories
Type
preprint
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preprint

Cayden's Hope: Unifying Quantum Spacetime Mechanics and Macroscopic Cosmology Through a Closed T4 Manifold

Jonathan Wilson
3 links
Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
preprint

Cayden's Hope: Unifying Quantum Spacetime Mechanics and Macroscopic Cosmology Through a Closed T4 Manifold

Jonathan Wilson
preprint en

Abstract

I present Cayden’s Hope, an independent theoretical framework unifying Loop Quan- tum Cosmology (LQC) with a closed 4-torus (T4) spatial geometry to resolve the cosmic singularity and entropy accumulation paradoxes inherent in classical cyclic models. By lever- aging the upper limit on energy density ρcrit ≈ 0.41 Planck imposed by quantum geometry, the cosmic scale factor avoids a(t) → 0, executing a non-singular quantum bounce. Entropy generation across successive cycles is regularized via localized event horizon thermodynamic freezing inside primordial black holes during late-stage collapse, maintaining global entropy bounded as Sbounce ≪ Smax. We derive the full tensor field equations, Mukhanov-Sasaki perturbation spectra, operational shear defenses, comparative matrices, and observational tests alongside Penrose’s Conformal Cyclic Cosmology (CCC) and the Steinhardt-Turok Ekpyrotic model. Version 3 Update: This release adds the formal Observational Alignment Appendix, mapping the framework's core predictions against recent data releases from Planck/WMAP archives, Euclid (Q1/Q2), Rubin LSST (DP1/EDP2), and the Simons Observatory. Current survey constraints—including the infrared horizon cutoff (ell_cutoff ≈ 22), topological matched-circle geometry (α ≈ 18.4°), and tensor spectral index bounds (nT ≈ -0.002)—demonstrate full consistency with the LQC bounce geometry and T^4 topology.

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