生命的底层动力学及其演化：一个受 Prigogine 启发的信息耗散系统
The Underlying Dynamics of Life and Its Evolution: A Prigogine-Inspired Informational Dissipative System
AI总结：
本文提出信息耗散系统与热力学耗散系统共同促成生命特征，通过 Shannon 空间与 Boltzmann 空间的循环熵流说明混沌和 disquisotropic entropy 如何维持远离平衡态的秩序。
摘要：
生命从根本上说是一个科学谜题。混沌、熵动力学与 Prigogine 耗散系统之间的相互作用，为远离平衡态系统的涌现、稳定以及最终崩溃提供了深刻洞见。本研究提出，除 Ilya Prigogine 所强调的热力学耗散系统之外，信息耗散系统也主动促使无生命物质获得生命系统所特有的属性，例如自创生（autopoiesis）。通过考察水拓扑（Shannon 空间）与分子系统（Boltzmann 空间）之间的循环熵流，该工作强调了 disquisotropic entropy 的关键作用，这是一种源于分子结构缺陷的信息熵储库。分析表明，混沌发挥着稳定力量的作用，通过延迟热力学平衡来增强韧性、适应性和寿命。本研究将基础热力学原理与混沌系统的涌现行为联系起来，为更深入理解自然和技术情境中的复杂性铺平道路。通过探索混沌、熵与耗散动力学之间的关系，该研究推进了一种范式：无序成为维持秩序的机制，而这正是生命和复杂系统的标志。
英文摘要：
Life is fundamentally a scientific enigma. The interplay between chaos, entropy dynamics, and Prigogine's dissipative systems offers profound insights into the emergence, stabilization, and eventual collapse of far-from-equilibrium systems. This study proposes that, alongside thermodynamic dissipative systems as highlighted by Ilya Prigogine, informational dissipative systems actively contribute to granting inanimate matter properties characteristic of living systems, such as autopoiesis. By examining cyclic entropy flows between water topology (Shannon space) and molecular systems (Boltzmann space), the work emphasizes the pivotal role of disquisotropic entropy, an informational entropy reservoir arising from imperfections in molecular structures. The analysis demonstrates that chaos functions as a stabilizing force, enhancing resilience, adaptability, and longevity by delaying thermodynamic equilibrium. This research connects foundational thermodynamic principles with the emergent behavior of chaotic systems, paving the way for a deeper understanding of complexity in natural and technological contexts. By exploring the relationship between chaos, entropy, and dissipative dynamics, the study advances a paradigm where disorder becomes a mechanism to sustain order, a hallmark of life and complex systems.
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