In the presence of external stimuli and electromagnetic radiation (EMR), biological neurons
can exhibit different firing patterns and switch to appropriate firing modes because of …

Propagation and exchange of electrical signals between neurons mainly depend on the
controllability of synapses. These electrical signals will affect the dynamic characteristics of …

Connecting memristors into any neural circuit can enhance its potential controllability under
external physical stimuli. Memristive current along a magnetic flux-controlled memristor can …

Electromagnetic induction effect caused by neuron potential can be mimicked using
memristor. This paper considers a flux-controlled memristor to imitate the electromagnetic …

The ion exchange in neurons can trigger time-varying magnetic fields. According to the
superposition field principle, each neuron is exposed to the integrated magnetic field …

To study the collective behavior and the regulation mechanism of memristor, the Hindmarsh–
Rose neuron cells are selected as the units to construct a coupled system by using the cubic …

A change in neuronal-action potential can generate a magnetically induced current during
the release and propagation of intracellular ions. To better characterize the electromagnetic …

Neurons can exhibit abundant electrical activities due to physical effects of various
electrophysiology environments. The electromagnetic induction flows can be triggered by …

Static distribution of intracellular ions including calcium, sodium and potassium activates
spatial distribution of electric field and energy is kept in the biological neurons. Continuous …

The membrane potential difference between two adjacent neurons can induce an
electromagnetic induction current that behaves like a memristor synapse effect using to …