Bioinspired Cellular Nonlinear Networks working on the edge of chaos

A. Slavova, Ventsislav Ignatov
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Abstract

The most widely-used model of the excitation and propagation of impulse (action potential) in nerve membranes is the Hodgkin-Huxley system. In this paper we consider its simplification - a coupled FitzHugh Nagumo model. We shall study its dynamics from the point of view of local activity theory and we shall define the edge of chaos region in which complex behavior appears. Simulations show that oscillatory patterns, chaotic patterns, or divergent patterns may emerge if the selected cell parameters are located in locally-active domains but near the edge of chaos.
在混沌边缘工作的仿生细胞非线性网络
神经膜中脉冲(动作电位)的激发和传播最广泛使用的模型是霍奇金-赫胥黎系统。本文将其简化为FitzHugh - Nagumo耦合模型。我们将从局部活动理论的角度研究其动力学,并定义出现复杂行为的混沌区域的边缘。仿真结果表明,如果选定的单元参数位于局部活跃域但靠近混沌边缘,则可能出现振荡模式、混沌模式或发散模式。
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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