MXenes have received increasing attention due to their two-dimensional layered structure,
high conductivity, hydrophilicity, and large specific surface area. Because of these distinctive …

In the past decade, with the rapid development of wearable electronics, medical health
monitoring, the Internet of Things, and flexible intelligent robots, flexible pressure sensors …

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

Polymer nanofibers are widely adopted in energy harvesting and pressure sensing
applications owing to the large contact area and inherent compressibility. Herein, a high …

Flexible wearable sensors to monitor human movement and for electronic skins must exhibit
high sensitivity, a wide detection range, and waterproof characteristics. This work reports a …

With the rapid development of intelligent wearable electronic devices, highly compressible
porous piezoresistive sensors are in imperative demand. However, the robustness of …

A tactile sensor is the centerpiece in human–machine interfaces, enabling robotics or
prosthetics to manipulate objects dexterously. Specifically, it is crucial to endow the sensor …

Sensing materials with fiber structures are excellent candidates for the fabrication of flexible
pressure sensors due to their large specific surface area and abundant contact points. Here …

Flexible pressure sensors have attracted significant attention owing to their broad
applicability in wearable electronics and human–machine interfaces. However, it is still …

Wearable tactile sensors are under high pursuit in healthcare monitoring. However, most of
previous sensors were assembled by non-binding multilayers and built on airtight …