基于复杂平衡和持续活动机制的多种神经特征整合:心理现象背后和对应的统一神经解释

Tien-Wen Lee, G. Tramontano
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引用次数: 0

摘要

近几十年来,脑科学从经验和计算两方面都得到了丰富。有趣的新兴神经特征包括幂律分布、混沌行为、自组织临界性、方差方法、神经元雪崩、基于差分的稀疏编码、优化的信息传递、信息处理的最大动态范围、自发活动中诱发时空基元的再现性等。这些有趣的发现大致可以分为两类:复杂性和规律性。本文想强调的是,上述性质虽然看起来多样且不相关,但实际上可能植根于一个共同的基础-兴奋和抑制平衡(EIB)和持续活动(OA)。需要说明的是,对神经特征的描述和观察是现象或副现象,而EIB-OA是其底层机制。EIB以动态的方式维持,可能具有区域特异性,重要的是,EIB是沿着相变边界组织的,这被称为临界、分岔或混沌边缘。OA由自发组织活动、生理性噪声、非生理性噪声以及OA与诱发活动的相互作用组成。基于EIB-OA,大脑可以适应混沌和规律性的特性。我们提出了“虚拟脑空间”来连接脑动力学和心理空间,“代码驱动复杂性假说”来整合规律性和复杂性。讨论了脑振荡和能量消耗的功能含义。
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Integrating Various Neural Features Based on Mechanism of Intricate Balance and Ongoing Activity: Unified Neural Account Underlying and Correspondent to Mental Phenomena
In recent decades, brain science has been enriched from both empirical and computational approaches. Interesting emerging neural features include power-law distribution, chaotic behavior, self-organized criticality, variance approach, neuronal avalanches, difference-based and sparse coding, optimized information transfer, maximized dynamic range for information processing, and reproducibility of evoked spatio-temporal motifs in spontaneous activities, and so on. These intriguing findings can be largely categorized into two classes: complexity and regularity. This article would like to highlight that the above-mentioned properties although look diverse and un-related, but actually may be rooted in a common foundation—excitatory and inhibitory balance (EIB) and ongoing activities (OA). To be clear, description and observation of neural features are phenomena or epiphenomena, while EIB-OA is the underlying mechanism. The EIB is maintained in a dynamic manner and may possess regional specificity, and importantly, EIB is organized along the boundary of phase transition which has been called criticality, bifurcation or edge of chaos. OA is composed of spontaneous organized activity, physiological noise, non-physiological noise and the interacting effect between OA and evoked activities. Based on EIB-OA, the brain may accommodate the property of chaos and regularity. We propose “virtual brain space” to bridge brain dynamics and mental space, and “code driving complexity hypothesis” to integrate regularity and complexity. The functional implication of oscillation and energy consumption of the brain are discussed.
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