Conrad M
Department of Computer Science, Wayne State University, Detroit, MI 48202, USA.
Biosystems. 1997;42(2-3):177-90. doi: 10.1016/s0303-2647(97)01705-x.
The thesis is put forward that the non-linear self-organizing dynamics of biological systems are inherent in any physical theory that satisfies the requirements of both quantum mechanics and general relativity. Biological life is viewed as an extension of these underlying dynamics rather than as an emergent property of systems that reached a requisite threshold of complexity at a definite point in time. The underlying dynamics are based on interactions between manifest material organizations and an unmanifest vacuum sea whose density structure is isomorphic to the metric structure of space-time. These interactions possess an intrinsic self-corrective character, due to the fact that quantum processes lead to changes in particle states that have a random aspect, while general relativity requires that the distribution of manifest and unmanifest particles be self-consistent. The model implies vacuum hysteretic effects that would bear on nanobiological phenomena and that might be detected through nanobiological techniques.
本文提出的论点是，生物系统的非线性自组织动力学存在于任何满足量子力学和广义相对论要求的物理理论之中。生物生命被视为这些潜在动力学的延伸，而非在特定时间达到必要复杂程度阈值的系统所产生的涌现属性。潜在动力学基于明显物质组织与一种不明显的真空海之间的相互作用，该真空海的密度结构与时空的度规结构同构。由于量子过程会导致具有随机方面的粒子状态变化，而广义相对论要求明显和不明显粒子的分布是自洽的，所以这些相互作用具有内在的自我修正特性。该模型意味着真空滞后效应，这将影响纳米生物学现象，并且可能通过纳米生物学技术检测到。
