Inspired by the human skin, electronic skins (e‐skins) composed of various flexible sensors,
such as strain sensor, pressure sensor, shear force sensor, temperature sensor, and humility …

Wearable strain sensors with the ability of detecting physiological activities play an important
role in personalized healthcare. Electrospun fibers have become a popular building block …

Electronic skins (e-skins) are devices that can respond to mechanical stimuli and enable
robots to perceive their surroundings. A great challenge for existing e-skins is that they may …

Structured piezoresistive membranes are compelling building blocks for wearable
bioelectronics. However, the poor structural compressibility of conventional microstructures …

Herein, novel conductive composite hydrogels are developed with high stretchability, ultra‐
softness, excellent conductivity, and good self‐healing ability. The hydrogels are formed in …

There is an urgent need for developing electromechanical sensor with both ultralow
detection limits and ultrahigh sensitivity to promote the progress of intelligent technology …

Intelligent perception means that with the assistance of artificial intelligence (AI)‐motivated
brain, flexible sensors achieve the ability of memory, learning, judgment, and reasoning …

Electronic skins (e-skins) have seen intense research and rapid development in the past two
decades. To mimic the capabilities of human skin, a multitude of flexible/stretchable sensors …

Template methods are regarded as an important method for micro‐nano processing in the
active layer of flexible tactile sensors. These template methods use physical/chemical …

Intelligent technologies based on artificial intelligence and big data hold great potential for
health monitoring and human–machine capability enhancement. However, electronics must …