Holographic Genesis: Unification of Baryon Asymmetry, Dark Matter, and Gravitational Waves at the 50 TeV Scale

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Authors: Emiliano G. Greco
Cited by: 0

Abstract

Version 1.1: Updated to incorporate the "Resonant Protection" mechanism (Greco, 2026), which relaxes the hydrodynamic constraints on the domain wall velocity, and includes updated references to the ALICE Collaboration findings. ******************************************************************************************************************************************************* We present "Holographic Genesis," a unified theoretical framework that resolves the Baryon Asymmetry of the Universe (BAU), the origin of Dark Matter, and neutrino masses through a single confinement phase transition at Λ_C ≈ 50 TeV. Built upon the vacuum stability demonstrated in the Constructive Gauge Theory Program (CGTP) and the geometry of the Corq Model, we demonstrate that the phase transition in the strongly coupled sector is first-order. Crucially, we incorporate the "Resonant Protection" mechanism—mediated by the finite lifetime of Top Partners (M_T' ≈ 2.5 TeV)—which ensures the survival of the chiral asymmetry even in high-friction regimes, effectively relaxing the strict requirement for supersonic domain walls (v_w → 1). The necessary CP violation arises from resonant mixing in the Top Partner sector, rectified by a 5D Chern-Simons term that biases topological transitions. The model predicts a Cogenesis mechanism where the decay of the asymmetry simultaneously generates visible matter and a scalar dark matter candidate (η ≈ 12 GeV) with a natural density ratio Ω_DM/Ω_B ≈ 5. Finally, we calculate the stochastic gravitational wave signal, predicting a characteristic peak at f ≈ 0.1 Hz detectable by DECIGO and BBO, offering an experimental "smoking gun" for physics beyond the Standard Model.

Fields of Study & Subjects

Particle physics theoretical and experimental studies Dark Matter and Cosmic Phenomena Computational Physics and Python Applications

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
4 January 2026
Language
EN
Document type
Preprint