Published June 4, 2026 | Version v1.1

Fossilized Space Theory

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Abstract

Fossilized Space Theory is a speculative cosmological framework proposing that remnants of previous universal states may survive the formation of a new universe by becoming embedded, compressed, or topologically preserved within emergent spacetime. Rather than treating a Big Bang-like event as a complete erasure of prior cosmic structure, this framework explores the possibility that certain features of an earlier universe could persist as fossil-like imprints in geometry, quantum fields, vacuum structure, entropy gradients, or large-scale cosmic organization. These remnants would not necessarily appear as ordinary matter, stars, planets, or galaxies from a previous universe. Instead, they may exist as subtle spacetime scars, field discontinuities, gravitational anomalies, information residues, or background-radiation irregularities. Version 1 of this theory establishes the conceptual vocabulary, possible mechanisms, observational targets, and limitations needed for later development. The theory is presented as an exploratory hypothesis intended to stimulate discussion, modeling, and future refinement rather than as a confirmed physical model.

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Assessing Bounce Survivability and Gravity Scars.pdf

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References

  • Webb, Jeffrey. Fossilized Space Theory Version 1.1: Addendum — Gravity-Scar Model. Zenodo/addendum draft, 2026. Bounce cosmology, cyclic cosmology, and pre-Big-Bang remnants Xue, B., Garfinkle, D., Pretorius, F., & Steinhardt, P. J. "Nonperturbative analysis of the evolution of cosmological perturbations through a nonsingular bounce." arXiv:1308.3044. Battarra, L., Koehn, M., Lehners, J.-L., & Ovrut, B. A. "Cosmological Perturbations Through a Non-Singular Ghost-Condensate/Galileon Bounce." arXiv:1404.5067. Quintin, J., Sherkatghanad, Z., Cai, Y.-F., & Brandenberger, R. H. "Evolution of cosmological perturbations and the production of non-Gaussianities through a nonsingular bounce." arXiv:1508.04141. Rovelli, C., & Vidotto, F. "Pre-big-bang black-hole remnants and the past low entropy." arXiv:1805.03224. Agullo, I., Olmedo, J., & Wilson-Ewing, E. "Observational constraints on anisotropies for bouncing alternatives to inflation." arXiv:2206.04037. Bojowald, M., & others / Loop Quantum Cosmology review literature. "Loop quantum cosmology: relation between theory and observations." arXiv:2301.10215. Papanikolaou, T., & collaborators. "Primordial black holes and induced gravitational waves in non-singular matter bouncing cosmology." arXiv:2404.03779. DHOST Bounce Cosmology paper. "Scalar and Tensor Perturbations in DHOST Bounce Cosmology." arXiv:2108.01339. Ekpyrotic bounce paper. "Nonsingular Ekpyrotic Cosmology with a Nearly Scale-Invariant Spectrum of Cosmological Perturbations and Gravitational Waves." arXiv:2001.00638. Conformal Cyclic Cosmology and CMB fossil-signature searches Gurzadyan, V. G., & Penrose, R. "CCC-predicted low-variance circles in CMB sky and LCDM." arXiv:1104.5675. An, D., Meissner, K. A., Nurowski, P., & Penrose, R. "Apparent evidence for Hawking points in the CMB Sky." arXiv:1808.01740. Jow, D. L., & Scott, D. "Re-evaluating evidence for Hawking points in the CMB." arXiv:1909.09672. Bodnia, E., et al. "The quest for CMB signatures of Conformal Cyclic Cosmology." arXiv:2208.06021. Planck CMB constraints and standard cosmology baseline Planck Collaboration. "Planck 2018 results. VI. Cosmological parameters." arXiv:1807.06209. Planck Collaboration. "Planck 2018 results. VII. Isotropy and Statistics of the CMB." arXiv:1906.02552. Planck Collaboration. "Planck 2018 results. VIII. Gravitational lensing." arXiv:1807.06210. Planck Collaboration. "Planck 2018 results. IX. Constraints on primordial non-Gaussianity." arXiv:1905.05697. Planck Collaboration. "Planck 2018 results. X. Constraints on inflation." arXiv:1807.06211. Cosmological collider search paper. "Searching for Cosmological Collider in the Planck CMB Data." arXiv:2404.07203. Low-ℓ anomalies, primordial spectra, and pre-inflationary signatures Handley, W., Lasenby, A., Peiris, H. V., & Hobson, M. "Bayesian inflationary reconstructions from Planck 2018 data." arXiv:1908.00906. Ashtekar, A., Gupt, B., Jeong, D., & Sreenath, V. "Alleviating the Tension in the Cosmic Microwave Background using Planck-Scale Physics." arXiv:2001.11689. Loop Quantum Cosmology spectrum paper. "Parametrization of the primordial power spectrum in loop quantum cosmology." arXiv:2605.14657. Lensing, large-scale structure, and mass-map testing ACT/DES Collaboration. "Cosmology from Cross-Correlation of ACT-DR4 CMB Lensing and DES-Y3 Cosmic Shear." arXiv:2309.04412. DECADE + DES Y3 Collaboration. "DECADE+DES Y3 Weak Lensing Mass Map: A 13,000 deg² View of Cosmic Structure from 270 Million Galaxies." arXiv:2509.03798. Demirbozan, U., et al. "The Gravitational Lensing Imprints of DES Y3 Superstructures on the CMB: A Matched Filtering Approach." arXiv:2404.18278. Fabbian, G., Lewis, A., & Beck, D. "CMB lensing reconstruction biases in cross-correlation with large-scale structure probes." arXiv:1906.08760. Future CMB experiments and testing pathways Simons Observatory Collaboration. "The Simons Observatory: Science goals and forecasts." arXiv:1808.07445. CMB-S4 related paper. "CMB-S4: Iterative Internal Delensing and r Constraints." arXiv:2310.06729. High-redshift CMB lensing mass-map paper. "Probing early structure and model-independent neutrino mass with high-redshift CMB lensing mass maps." arXiv:2208.04253. Topological defects and constraints Cosmic strings/domain walls paper. "Cosmic strings and domain walls: the impact of CMB B-mode data." arXiv:2602.20050.