Bergmann Bounce Relativity and the Origin of Life: Emergent Complexity from Stochastic Mini-Bounces in Prebiotic Chemistry

The origin of life (abiogenesis) remains one of the deepest unsolved problems in science: How did complex, self-replicating molecules emerge from prebiotic chemistry under early Earth conditions? Standard models (RNA world, metabolism-first, hydrothermal vents) struggle with the transition from simple organics to autocatalytic systems and homochirality. Bergmann Bounce Relativity (BBR) and the Bergmann Multi-Cycle (BMC) offer a novel pathway: Stochastic mini-bounces in the early universe and on planetary surfaces generate localized entropy resets and anisotropic fluctuations, favoring emergent complexity, homochirality, and autocatalysis. This paper derives bounce-induced chemical rate equations, analyzes stability of prebiotic networks, compares with classical abiogenesis scenarios, and provides testable predictions (e.g., isotopic anomalies in ancient rocks, chiral bias in meteorites, lab simulations with bounce-analog fields). BBR/BMC unify cosmology, quantum gravity, and astrobiology, suggesting life as an emergent consequence of bounce-driven complexity rather than rare chance.