Artificial neuronal devices are critical building blocks of neuromorphic computing systems
and currently the subject of intense research motivated by application needs from new …

Metal–insulator transition (MIT) coupled with an ultrafast, significant, and reversible resistive
change in Mott insulators has attracted tremendous interest for investigation into next …

Neurological electronic skin (E-skin) can process and transmit information in a distributed
manner that achieves effective stimuli perception, holding great promise in neuroprosthetics …

Neuromorphic electronics has demonstrated great promise in mimicking the sensory and
memory functions of biological systems. However, synaptic devices with desirable …

Neuromorphic computing is a brain-inspired computing paradigm that aims to construct
efficient, low-power, and adaptive computing systems by emulating the information …

Tactile electronic skin that could interface with biological nerve systems is essential for
intelligent robotic prosthetics, human augmentation, novel human-machine interfaces …

The essential step for developing neuromorphic systems is to construct more biorealistic
elementary devices with rich spatiotemporal dynamics to exhibit highly separable responses …

The past decades have seen the rapid development of tactile sensors in material,
fabrication, and mechanical structure design. The advancement of tactile sensors has …

Biologically inspired neuromorphic sensory memory systems based on memristor have
received a lot of attention in the booming artificial intelligence industry due to significant …

Recently, memristors with brain-like synaptic behavior have attracted widespread attention,
offering unprecedented opportunities for constructing future artificial intelligent bio-inspired …