The SYK TENSOR Quantum Information Network (QIN): Baryogenesis via Temporal Scrambling Asymmetry in the Early Universe Matter Antimatter Asymmetry from Complex Flavored Couplings and Out of Equilibrium Reheating Dynamics

This paper extends the SYK TENSOR Quantum Information Network (QIN) framework toearly universe cosmology and provides a complete, pre geometric mechanism for baryogenesis.The observed matter antimatter asymmetry ηB ≈ 6×10−10 emerges naturally from CP violatingcomplex phases in flavored all to all SYK couplings combined with a novel temporal scramblingasymmetry during the post inflationary reheating phase. Out of equilibrium dynamics arise fromdirected information flow in the maximally chaotic Majorana qubit substrate: oscillatory inflatoncoupling induces faster forward time scrambling than backward time due to phase winding,generating a net baryon current before full thermalization. All three Sakharov conditions aresatisfied at the qubit level without sphalerons, extra dimensions, or intermediate leptogenesis.The predicted baryon to entropy ratio scales as ηB ∝ Im(trJ†J)/Nf×(λLTreh/MPl)−1, yieldingthe correct magnitude for validated chaos rate λL = 0.85 ± 0.12 and reheating temperaturesTreh ∼ 109–1012 GeV. The mechanism is UV finite by construction, empirically consistent withprior QIN validations, and offers sharp, falsifiable predictions for primordial non Gaussianityand quantum hardware tests.