The origin and stability of life remain among the most profound scientific enigmas. While Darwinian evolution explains adaptation via random mutations and natural selection, the sheer improbability of abiogenesis and the emergence of complex biological structures suggests that additional principles may be at work. This article proposes a hypothesis of entropy-guided evolution, in which quantum phenomena—especially non-locality, coherence, and tunneling in large ensembles of particles—play a macroscopic role in biological systems. These mechanisms may allow life to traverse otherwise insurmountable barriers in the evolutionary fitness landscape and maintain its remarkable stability across geological timescales. Within this framework, genes act not as complete blueprints but as developmental parameters, interacting with emergent quantum archetypes that encode organizing principles beyond local molecular dynamics. Analogies from physics and engineering illustrate how a purely reductionist view may overlook hidden informational and structural layers. Though speculative, the hypothesis makes testable predictions regarding quantum coherence, mutation patterns, and evolutionary transitions. This work aims to inspire interdisciplinary research bridging quantum physics, biology, and complexity theory, potentially revealing deeper organizing laws behind life’s emergence and resilience.
Pavel Straňák (2025) studied this question.