Effects of magnetic fields on stochastic resonance in Hodgkin-Huxley neuronal network driven by Gaussian noise and non-Gaussian noise

Stochastic resonance is a remarkable phenomenon that can enhance signal processing by the addition of random noise. However, the effect of magnetic fields on stochastic resonance under channel noises has been inadequately studied. In this paper, the stochastic resonance in Hodgkin-Huxley neuronal network under Gaussian channel noises and non-Gaussian channel noise were studied, and the effects of electromagnetic field stimulation on stochastic resonance were considered. The results indicate that stochastic resonance in neuronal networks can be induced by Gaussian channel noise and non-Gaussian Levy channel noise, and stochastic resonance may occur more easily under Levy channel noise. The resonance amplitude was significantly improved by selecting appropriate parameters of the magnetic field, while, a too strong magnetic field can be detrimental to the resonance amplitude. Magnetic fields may induce the enhancement of the resonance amplitude by increasing the firing frequency and spiking regularity.

Automated summary

This paper studied the stochastic resonance in Hodgkin-Huxley neuronal networks under different channel noises and analyzed the effects of electromagnetic field stimulation on resonance. The results indicate that selecting appropriate magnetic field parameters can significantly enhance the resonance amplitude, while excessively strong magnetic fields may have detrimental effects. Magnetic fields may induce the enhancement of resonance amplitude by increasing firing frequency and spiking regularity.