摘要We investigate responses of the Hodgkin--Huxley globally neuronal systems to periodic spike-train inputs. The firing activities of the neuronal networks show different rhythmic patterns for different parameters. These rhythmic patterns can be used to explain cycles of firing in real brain. These activity patterns, average activity and coherence measure are affected by two quantities such as the percentage of excitatory couplings and stimulus intensity, in which the percentage of excitatory couplings is more important than stimulus intensity since the transition phenomenon of average activity comes about.
Abstract：We investigate responses of the Hodgkin--Huxley globally neuronal systems to periodic spike-train inputs. The firing activities of the neuronal networks show different rhythmic patterns for different parameters. These rhythmic patterns can be used to explain cycles of firing in real brain. These activity patterns, average activity and coherence measure are affected by two quantities such as the percentage of excitatory couplings and stimulus intensity, in which the percentage of excitatory couplings is more important than stimulus intensity since the transition phenomenon of average activity comes about.
CHANG Wen-Li;WANG Sheng-Jun;WANG Ying-Hai. Responses of Hodgkin--Huxley Neuronal Systems to Spike-Train Inputs[J]. 中国物理快报, 2007, 24(9): 2696-2699.
CHANG Wen-Li, WANG Sheng-Jun, WANG Ying-Hai. Responses of Hodgkin--Huxley Neuronal Systems to Spike-Train Inputs. Chin. Phys. Lett., 2007, 24(9): 2696-2699.
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