互操作性的演变

P. Assogna
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引用次数: 0

摘要

互操作是复杂系统演化的核心:复杂性科学可以为企业互操作的相关特征提供有用的提示。根据热力学第二定律,一个孤立系统不可避免地会达到最大熵、最大均匀性和最小势能的状态:它不能再进化了。把宇宙作为一个系统,宇宙学家普遍同意,作为一个整体,它正在沿着这条路线运行。但也有“复杂的孤岛”,系统并没有变得越来越简单,而是找到了一种互操作和组织结构的方式,以牺牲其环境为代价,减少了内部熵。生物体就是这些互操作系统的最好例子。它们的进化是一个争夺资源和合作以最大限度地利用环境的故事。知识是熵的对立面,从某种意义上说,为了维持或增加其内部秩序,系统必须“知道”如何构建其组件。每个生物都通过建立和使用模型来对其环境进行操作,因此建模是互操作的主要工具(每个生物都是所有其他生物环境的一部分)。从这个意义上说,知识就是建立有效模型的能力。有机体使用建模来竞争和互操作的方式的某些方面可以转化为系统互操作性过程和工具。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The evolution of Interoperability
Interoperation is the core of complex systems evolution: the science of complexity can provide useful hints for relevant characteristics of Enterprise Interoperability. An isolated system, according to the second law of thermodynamics, inevitably gets to state of maximum entropy, maximum homogeneity and minimum potential energy: it cannot evolve any more. Taking the universe as a system, cosmologists generally agree that as a whole it is running down this course. But there are “islands of complexity”, systems that instead of getting simpler and simpler find a way of interoperate and organize structures that decrease internal entropy, at the expense of their context. Living organisms are the best example of these interoperating systems. Their evolution is a story of competition for resources and of cooperation for the best exploitation of the context. Knowledge is the opposite of entropy, in the sense that to maintain or increase its internal order a system must “know” how to structure its components. Every organism operates on its environment by building and using models, so that modelling is the main tool for interoperation (each organism is part of the environment of all other ones). In this sense knowledge is this capability of building effective models. Some aspects of the way organisms use modelling to compete and to interoperate can be translated to systems interoperability process and tools.
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