What question did this study set out to answer?

The study aims to derive fundamental physics parameters from a unified geometric framework involving torsional relaxation on S⁵.

February 14, 2026Open Access

The Torsional Manifold: A Parameter-Free Unification of Particle Physics and Cosmology from the Geometry of S⁵

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Monograph derives particle masses and cosmological parameters from geometry, suggesting a unified theory of physics.

The study aims to derive fundamental physics parameters from a unified geometric framework involving torsional relaxation on S⁵.
Derivation of the Standard Model particle spectrum and cosmological parameters from integers and constants.
Utilization of torsional overlap integrals to compute CKM and PMNS matrices.
Empirical validation against observational data including supernovae and CMB findings.
Analysis of geometric selection rules to explain phenomena like color confinement and electroweak symmetry breaking.
Successfully derived 17 Standard Model particle masses with a mean error of 0.028%.
The fine structure constant and Weinberg angle achieved high accuracy with mean errors of 0.0002% and 0.002%, respectively.
Predicted the Hubble constant at 67.5 km/s/Mpc with a 0.1% error, along with cosmological energy budget parameters.
Resolved S₈ tension with empirical validation against five weak lensing surveys.

Tor Ivar Lars Rossing Öberg (2026) studied this question.

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February 14, 2026Open Access

View Full Paper

Ask AI

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Authors

Monograph derives particle masses and cosmological parameters from geometry, suggesting a unified theory of physics.

The study aims to derive fundamental physics parameters from a unified geometric framework involving torsional relaxation on S⁵.
Derivation of the Standard Model particle spectrum and cosmological parameters from integers and constants.
Utilization of torsional overlap integrals to compute CKM and PMNS matrices.
Empirical validation against observational data including supernovae and CMB findings.
Analysis of geometric selection rules to explain phenomena like color confinement and electroweak symmetry breaking.
Successfully derived 17 Standard Model particle masses with a mean error of 0.028%.
The fine structure constant and Weinberg angle achieved high accuracy with mean errors of 0.0002% and 0.002%, respectively.
Predicted the Hubble constant at 67.5 km/s/Mpc with a 0.1% error, along with cosmological energy budget parameters.
Resolved S₈ tension with empirical validation against five weak lensing surveys.

Tor Ivar Lars Rossing Öberg (2026) studied this question.

View Full Paper

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Bookmark