Department of Neuroscience, University of Padova, Padova, Italy.
Department of Biomedical Sciences, University of Modena and Reggio Emilia, Modena, Italy.
Adv Neurobiol. 2024;36:203-225. doi: 10.1007/978-3-031-47606-8_10.
From the morphological point of view, the nervous system exhibits a fractal, self-similar geometry at various levels of observations, from single cells up to cell networks. From the functional point of view, it is characterized by a hierarchical organization in which self-similar structures (networks) of different miniaturizations are nested within each other. In particular, neuronal networks, interconnected to form neuronal systems, are formed by neurons, which operate thanks to their molecular networks, mainly having proteins as components that via protein-protein interactions can be assembled in multimeric complexes working as micro-devices. On this basis, the term "self-similarity logic" was introduced to describe a nested organization where, at the various levels, almost the same rules (logic) to perform operations are used. Self-similarity and self-similarity logic both appear to be intimately linked to the biophysical evidence for the nervous system being a pattern-forming system that can flexibly switch from one coherent state to another. Thus, they can represent the key concepts to describe its complexity and its concerted, holistic behavior.
从形态学的角度来看,神经系统在不同的观察水平上表现出分形的、自相似的几何结构,从单个细胞到细胞网络。从功能的角度来看,它的特点是具有层次化的组织,其中不同细化程度的自相似结构(网络)相互嵌套。特别是,神经元网络通过神经元相互连接形成神经元系统,神经元通过它们的分子网络运作,分子网络主要由蛋白质作为组成部分,通过蛋白质-蛋白质相互作用可以组装成作为微器件的多聚复合物。在此基础上,引入了“自相似性逻辑”一词来描述一种嵌套组织,在这种组织中,在各个层次上,几乎使用相同的规则(逻辑)来执行操作。自相似性和自相似性逻辑似乎都与神经的生物物理证据密切相关,即神经系统是一种模式形成系统,可以灵活地从一个连贯状态切换到另一个连贯状态。因此,它们可以代表描述其复杂性和协调一致的整体行为的关键概念。
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