Limit Cycle of a Single-Neuron System and Its Circuitry Design

Jintao Huang, X. Liao, Nankun Mu, Yunhang Zhu
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Abstract

In this paper, we investigate the limit cycle of a single-neuron system and its circuit design. By transforming the system into Lienard-type and using Poincaré-Bendixson theorem as well as the symmetry of this systems, we obtain the existence conditions of limit cycle of the system. Then, by comparing the integral value of the differential of positive definite function along two assumed limit cycles, we prove that the system cannot produce two coexisting limit cycles, which means that the system has at most one limit cycle. In addition, we give the numerical simulation, and realize the circuit design of the single-neuron system by using Multisim. The waveform diagram and phase diagram of the numerical simulation and circuit simulation are obtained respectively. By comparing the results of numerical and circuit simulation, the effectiveness of our mathematical analysis and the feasibility of circuit design are better illustrated.
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单神经元系统的极限环及其电路设计
本文研究了单神经元系统的极限环及其电路设计。通过将该系统转化为lienard型,利用poincar - bendixson定理以及该系统的对称性,得到了该系统极限环的存在条件。然后,通过比较正定函数的微分沿两个假定极限环的积分值,证明了系统不能产生两个共存的极限环,即系统最多有一个极限环。此外,我们还进行了数值仿真,并利用Multisim软件实现了单神经元系统的电路设计。分别得到了数值仿真和电路仿真的波形图和相位图。通过数值与电路仿真结果的比较,更好地说明了数学分析的有效性和电路设计的可行性。
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