Exchangeable Quantities and Power Laws: Τhe Case of Pores in Solids

A. Margellou, Philippos J. Pomonis
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Abstract

In this work we suggest that the common cause for the development of various power laws is the existence of a suitable exchangeable quantity between the agents of a set. Examples of such exchangeable quantities, leading to eponymous power laws, include money (Pareto’s Law), scientific knowledge (Lotka’s Law), people (Auerbach’s Law), and written or verbal information (Zipf’s Law), as well as less common cases like bullets during deadly conflicts, recognition in social networks, heat between the atmosphere and sea-ice floes, and, finally, mass of water vapors between pores in solids. This last case is examined closely in the present article based on extensive experimental data. It is shown that the transferred mass between pores, which eventually grow towards a power law distribution, may be expressed using different parameters, either transferred surface area, or transferred volume, or transferred pore length or transferred pore anisotropy. These distinctions lead to different power laws of variable strength as reflected by the corresponding exponent. The exponents depend quantitatively on the spread of frequency distribution of the examined parameter and tend to zero as the spread of distribution tends to a single order of magnitude. A comparison between the energy and the entropy of different kinds of pore distributions reveals that these two statistical parameters are linearly related, implying that the system poise at a critical state and the exchangeable quantities are the most convenient operations helping to keep this balance.
可交换量和幂律:固体中孔隙的情况
在这项工作中,我们提出,各种幂律发展的共同原因是,在一组行为主体之间存在一个合适的可交换数量。导致同名幂律的此类可交换数量的例子包括金钱(帕累托定律)、科学知识(洛特卡定律)、人(奥尔巴赫定律)、书面或口头信息(齐普夫定律),以及一些不太常见的情况,如致命冲突中的子弹、社交网络中的识别、大气层与海冰浮体之间的热量,以及最后固体孔隙间水蒸气的质量。本文以大量实验数据为基础,对最后一种情况进行了仔细研究。研究表明,孔隙间传递的质量最终会朝着幂律分布的方向增长,可以用不同的参数来表示,或者是传递的表面积,或者是传递的体积,或者是传递的孔隙长度,或者是传递的孔隙各向异性。这些区别导致了不同强度的幂律,并通过相应的指数反映出来。指数在数量上取决于所研究参数的频率分布范围,当分布范围趋于一个数量级时,指数趋于零。对不同类型孔隙分布的能量和熵进行比较后发现,这两个统计参数呈线性关系,这意味着系统处于临界状态,而可交换量是有助于保持这种平衡的最便捷操作。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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