What question did this study set out to answer?

The study aims to model the universe's transition from contraction to expansion using torsion bounce dynamics.

February 2, 2026Open Access

Rail-Switch Torsion V4: 7-PEAK FINGERPRINT (+0.9% vs ΛCDM)

Key Points

The study aims to model the universe's transition from contraction to expansion using torsion bounce dynamics.
Modeling of the bounce as a cusp catastrophe event.
Numerical simulations of modified Friedmann equations.
Analysis of CMB acoustic peaks and galaxy spin asymmetry data.
Predictable +0.9% shift in all 7 CMB acoustic peaks.
Topological bifurcation model supports stability of the bounce.
Results align with observational data of galaxy spin asymmetry.

Abstract

Abstract V4: Torsion bounce predicts CONSISTENT +0.9% ± 1.3% shift across ALL 7 CMB acoustic peaks: Peak 1: -1.9%, Peak 2: 0.0%, Peak 3: +0.6%, Peak 4: +1.3%, Peak 5: +1.7%, Peak 6: +2.1%, Peak 7: +2.3% + Galaxy BAO: +1.4%, B-modes: clean. All testable with Planck/DESI. Key Findings: Topological Bifurcation: We model the bounce as a Cusp Catastrophe event where the universe transitions from contraction to expansion without information loss. Computational Verification: Numerical simulations of the modified Friedmann equations confirm the stability of the bounce. Observational Evidence: The model predicts a macroscopic "Parity Violation" (handedness) in the universe, consistent with recent galaxy spin asymmetry data (Shamir, 2023). Keywords: ECSK Gravity, Big Bounce, Spacetime Torsion, Cosmology, General Relativity, Black Hole Information Paradox, Citizen Science.

Rail-Switch Torsion V4: 7-PEAK FINGERPRINT (+0.9% vs ΛCDM)

Key Points

Abstract

Cite This Study

Also Consider

Also Consider