Artificial synaptic devices are emerging as contenders for next-generation computing
systems due to their combined advantages of self-adaptive learning mechanisms, high …

Organic neuromorphic devices and sensors that mimic the functions of chemical synapses
and sensory perception in humans have received much attention for next‐generation …

Inspired by biological neuromorphic systems, which can simultaneously perceive,
remember, and process enormous information through parallel, energy-efficient processes …

Electrolyte‐gated organic electrochemical transistors (OECTs) are attractive for synaptic
electronics owing to the ionic–electronic coupling, huge specific capacitance, physiological …

In recent years, much attention has been focused on two-dimensional (2D) material-based
synaptic transistor devices because of their inherent advantages of low dimension …

Optoelectronic synapses can perceive and memorize visual information, making them
appealing for future bionic eyes or vision automation. Organic field-effect transistors are a …

Phototunable synaptic elements are beginning to emerge for the sustainable development
of advanced neuromorphic computing technology in the post‐Moore era. However, the …

Artificial synapses relying on electrical and optical stimuli to implement neuromorphic tasks
have been intensively developed, but very few of them can directly respond to real biological …

Organic artificial synapses are becoming the most desirable format for neuromorphic
computing due to their highly tunable resistive states. However, repressively low analog …

Developing an artificial visual sensory system requires optoelectronic materials and devices
that can mimic the behavior of biological synapses. Organic/polymeric semiconductors have …