Diffusive field coupling-induced synchronization between neural circuits under energy balance

Abstract

When charged bodies come up close to each other, the field energy is diffused and their states are regulated under bidirectional field coupling. For biological neurons, the diversity in intrinsic electric and magnetic field energy can create synaptic connection for fast energy balance and synaptic current is passed across the synapse channel; as a result, energy is pumped and exchanged to induce synchronous firing modes. In this paper, a capacitor is used to connect two neural circuits and energy propagation is activated along the coupling channel. The intrinsic field energy in the two neural circuits is exchanged and the coupling intensity is controlled adaptively using the Heaviside function. Some field energy is saved in the coupling channel and is then sent back to the coupled neural circuits to reach energy balance. Therefore the circuits can reach possible energy balance and complete synchronization. It is possible that the diffusive energy of the coupled neurons inspires the synaptic connections to grow stronger for possible energy balance.