Emergent Gravity and Torsion: String Theory Without String Theory, Why the Cosmic Dark Energy Is So Small
Jack Sarfatti

TL;DR
This paper proposes a holographic explanation for the smallness of dark energy, deriving Einstein-Cartan curvature and torsion from a matrix of Goldstone forms, suggesting a natural gauge theory framework that explains the absence of detectable dark matter particles.
Contribution
It introduces a novel holographic model linking torsion and curvature to vacuum condensates, providing a new perspective on quantum gravity and dark energy without relying on string theory.
Findings
Predicts no detectable dark matter particles at the LHC or other detectors.
Explains the small dark energy density through holographic vacuum properties.
Suggests supersymmetry must break for a small negative pressure vacuum to exist.
Abstract
A surprisingly simple holographic explanation for the low dark energy density is suggested. I derive the Einstein-Cartan disclination curvature tetrads and the physically independent dislocation torsion gap spin connections from an "M-Matrix" of non-closed Cartan 1-forms made from 8 Goldstone phase 0-forms of the vacuum ODLRO condensate inflation field in which the non-compact 10-parameter Poincare symmetry group is locally gauged for all invariant matter field actions. Quantum gravity zero point vacuum fluctuations should be renormalizable at the spin 1 tetrad level where there is a natural scale-dependent holographic dimensionless coupling (hG/\zpf/c^3)^1/3 ~ (Bekenstein BITS)^-1/3. The spacetime tetrad rotation coefficients play the same role as do the Lie algebra structure constants in internal symmetry spin 1 Yang-Mills local gauge theories. This suggests an intuitively pleasing…
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Taxonomy
TopicsCosmology and Gravitation Theories · Relativity and Gravitational Theory · Dark Matter and Cosmic Phenomena
