论大脑中的时间和空间:一个相对论的伪扩散框架

Q3 Engineering Brain multiphysics Pub Date : 2020-11-01 DOI:10.1016/j.brain.2020.100016
Denis Le Bihan
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引用次数: 6

摘要

考虑到动作电位在大脑连接组中的传播速度有一个有限的极限,以及大脑中的存在是不明确的,我们借用狭义相对论和广义相对论的概念,引入了时间和空间在大脑中紧密混合的观点。研究表明,大脑的功能特征和结构特征可以通过一个组合的大脑“时空”来统一。这个四维大脑时空呈现出由大脑活动产生的功能性曲率,以类似的方式,引力质量赋予我们的四维宇宙时空曲率。在奠定基础并使用神经传播的相对论伪扩散模型发展这一框架之后,我们探索了这一全脑框架如何揭示在一些神经精神和意识障碍中观察到的脑功能特征和功能障碍表型(疾病的临床表现)。由于脑连接组中的动作电位以有限的速度极限传播,因此脑节点之间的同时性只是相对的。一个新的概念正在出现,即大脑中的时间和空间,就像在宇宙中一样,通过一个组合的“时空”紧密地混合在一起。这个四维时空融合了大脑的结构和功能,呈现出一种由大脑活动产生的曲率,就像引力质量赋予我们的宇宙时空曲率,驱动大脑内的活动流一样。
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On time and space in the brain: A relativistic pseudo-diffusion framework

Considering that the propagation speed of action potentials in the brain connectome has a finite limit and that present is ill-defined in the brain we apply concepts borrowed from the theories of special and general relativity to introduce the view that time and space are tightly blended in the brain. It is shown that the brain functional and structural features can be unified through a combined brain “spacetime”. This 4-dimensional brain spacetime presents a functional curvature generated by brain activity, in a similar way gravitational masses give our 4-dimensional Universe spacetime its curvature. After laying its foundations and developing this framework using a relativistic pseudo-diffusion model of neural propagation, we explore how this whole-brain framework may shed light on brain functional features and dysfunction phenotypes (clinical expression of diseases) observed in some neuropsychiatric and consciousness disorders.

Statement of Significance

Because action potentials in the brain connectome propagate with a finite velocity limit, simultaneity across brain nodes is only relative. A new concept is emerging where time and space in the brain, as in the Universe, are tightly mingled through a combined “spacetime”. This 4-dimensional spacetime merging brain structure and function presents a curvature generated by brain activity, in a similar way gravitational masses give our Universe spacetime its curvature, driving activity flow within the brain.

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来源期刊
Brain multiphysics
Brain multiphysics Physics and Astronomy (General), Modelling and Simulation, Neuroscience (General), Biomedical Engineering
CiteScore
4.80
自引率
0.00%
发文量
0
审稿时长
68 days
期刊最新文献
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