Stathatos Marios A
Diagnostic and Therapeutic Center of Athens Hygeia SA, Kifissias Avenue and Erythrou Stavrou Street, 15123 Marousi, Athens, Greece.
Med Hypotheses. 2005;64(5):1039-45. doi: 10.1016/j.mehy.2004.11.015.
The laws of biochemistry and biology are governed by parameters whose description in mathematical formulas is based on the three-dimensional space. It is a fact, however, that the life span of a cell and its specific functions, though limited, can be extended or diminished depending on the genetic code but also, on the natural pressure of the environment. The plasticity exhibited by a cellular system has been attributed to the change of the three-dimensional structure of the cell, with time being a simple measure of this change. The model of biological relativity proposed here, considers time as a flexible fourth dimension that corresponds directly to the inertial status of the cells. Two types of clocks are defined: the relativistic biological clock (RBC) and the mechanical clock (MC). In contrast to the MCs that show the astrological reference time, the time shown by the RBCs delay because it depends on cellular activity. The maximum and the expected life span of the cells and/or the organisms can be therefore relied on time transformation. One of the most important factors that can affect time flow is the energy that is produced during metabolic work. Based on this observation, RBCs can be constructed following series of theoretical experiments in order to assess biological time and life span changes.
生物化学和生物学规律受一些参数的支配，这些参数在数学公式中的描述基于三维空间。然而，事实是，细胞的寿命及其特定功能虽然有限，但可以根据遗传密码以及环境的自然压力而延长或缩短。细胞系统所表现出的可塑性归因于细胞三维结构的变化，时间是这种变化的一个简单度量。这里提出的生物相对论模型将时间视为一个灵活的第四维，它直接对应于细胞的惯性状态。定义了两种类型的时钟：相对论生物钟（RBC）和机械时钟（MC）。与显示占星参考时间的MC不同，RBC显示的时间会延迟，因为它取决于细胞活动。因此，细胞和/或生物体的最大寿命和预期寿命可以依赖于时间转换。能够影响时间流逝的最重要因素之一是代谢工作过程中产生的能量。基于这一观察结果，可以通过一系列理论实验构建RBC，以评估生物时间和寿命的变化。
