What question did this study set out to answer?

To resolve early-universe singularities, unbounded thermal infinities, and the requirement for ad-hoc cosmic inflation by formulating a mathematically bounded thermodynamic framework.

August 16, 2026Open Access

The Conformal Thermodynamic Cycle: Eradicating Singularities, the Information Loss Paradox, and Cosmic Inflation via Holographic Protocol Handovers

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Authors

AMAlex Maestrini

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Implication

Theoretical modeling demonstrates a non-singular origin of the early universe through bounded thermodynamic constraints, indicating that cosmic inflation and initial-value infinities are...

Key Points

To resolve early-universe singularities, unbounded thermal infinities, and the requirement for ad-hoc cosmic inflation by formulating a mathematically bounded thermodynamic framework.
Applied thermodynamic boundary constraints from Tri-Scale topology, capping thermodynamic degrees of freedom using an N=4 particle spectrum truncation.
Implemented a non-Lipschitz fractional scaling law at the Planck-length geometric minimum to model initial cosmological expansion.
Replaced the singular t=0 boundary condition with deterministic symmetry breaking from a finite quiescent state, avoiding infinite temperature and density.
Demonstrated that the failure of Lipschitz continuity at the minimum geometric scale permits continuous scale factor evolution while satisfying local energy conservation without inflationary potentials.

Cite This Study

Alex Maestrini (2026) studied this question.

synapsesocial.com/papers/6a817a80f2fb91fc834ae6c5 https://doi.org/10.5281/zenodo.21946084

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Implication

Theoretical modeling demonstrates a non-singular origin of the early universe through bounded thermodynamic constraints, indicating that cosmic inflation and initial-value infinities are...