Department of Physics, University of Helsinki, Helsinki, Finland.
Philos Trans A Math Phys Eng Sci. 2023 Aug 7;381(2252):20220281. doi: 10.1098/rsta.2022.0281. Epub 2023 Jun 19.
Thermodynamics is regarded as a universal but not foundational theory because its laws for macroscopic quantities have not been derived from microscopic entities. Thus, to root thermodynamics into the fundamental substance, atomism is revived, thinking that the light quantum is the indivisible and permanent element. Assuming the same basic building blocks constitute everything, the state of any system can be quantified by entropy, the logarithmic probability measure multiplied by Boltzmann's constant. Then, the change in entropy expresses the system's evolution toward thermodynamic balance with its surroundings. These natural processes consuming free energy in the least time accumulate sigmoidally, resulting in skewed distributions found throughout nature. In this way, thermodynamics makes sense of phenomena across disciplines and provides a holistic worldview to address questions such as what the world is, how we know about it, what is the meaning of life and how we should live. This article is part of the theme issue ''Thermodynamics 2.0: Bridging the natural and social sciences (Part 1)'.
热力学被视为一种普遍但非基础的理论,因为其宏观量的定律尚未从微观实体中推导出来。因此,为了将热力学植根于基本物质,原子论被重新提出,认为光量子是不可分割和永久的元素。假设相同的基本构建块构成了一切,任何系统的状态都可以通过熵来量化,即玻尔兹曼常数乘以对数概率度量。然后,熵的变化表示系统与其环境向热力学平衡的演化。这些以最小时间消耗自由能的自然过程呈指数累积,导致在自然界中发现的偏态分布。通过这种方式,热力学为跨学科的现象提供了意义,并提供了一种整体世界观来解决问题,例如世界是什么,我们如何了解它,生命的意义是什么以及我们应该如何生活。本文是主题为“热力学 2.0:连接自然科学和社会科学(第 1 部分)”的一部分。