Zero-Parameter Symbolic Proof of Dark Energy: The CSU Framework

Read full text Summarise with VIRAT
Authors: Luke McCabe
Cited by: 0

Summary

No summary yet. VIRAT can read this paper and write a plain-language summary of its aim, methods, key findings and limitations.

Summarise with VIRAT Free to try with your Science Catalogs account.

Abstract

This repository contains the complete, automated symbolic verification of the Chrono Singularity Unification (CSU) framework's resolution to the dark energy crisis. For decades, the 122-order-of-magnitude discrepancy between quantum field theory and the observed cosmological constant has been the most profound unsolved problem in physics. This package proves, using rigorous SymPy-based algebraic derivations, that this "catastrophe" is merely an artifact of overcounting degrees of freedom via volume scaling rather than holographic area scaling. Executing the included Python validation suite mathematically proves the following from three minimal information-theoretic axioms (with zero free parameters): Vacuum Spectral Weight: A dual-pathway convergence (Information-Theoretic and Topological) proving wvac=25/12. Dimensionless Cosmological Constant: An exact derivation of ΞΛ=2.889×10−122, achieving ~99% agreement with Planck observations. Dark Energy Density: A topological invariant prediction of ΩΛ=25/36≈0.6944. Equation of State & Evolution: A rigorous derivation of the equilibrium state (w=−1) and the dynamic Renormalization Group flow parameter (wa=−4(1+w0), perfectly aligning with the recent DESI 2024 anomaly. Hubble Tension Resolution: A natural holographic evolution factor predicting H_{local}/H_{CMB} = \sqrt{7/6}, Hlocal≈72.8 km/s/Mpc, matching SH0ES data to 99.7%. This code serves as an interactive, irrefutable mathematical proof that dark energy is the inevitable geometric consequence of information conservation in a discrete universe.

Fields of Study & Subjects

Cosmology and Gravitation Theories Advanced Mathematical Theories and Applications Noncommutative and Quantum Gravity Theories

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
8 March 2026
Language
EN