With the increasing demands for artificial intelligence, robotics, electronic skin, healthcare,
and energy storage/conversion, the research focus on flexible electronics has started to shift …

The advent of self‐powered wearable electronics will revolutionize the fields of smart
healthcare and sports monitoring. This technological advancement necessitates more …

The fabrication of composite materials is an effective way to improve the performance of a
single material and expand its application range. In recent years, graphene-based …

Conducting polymers with high theoretical capacitance and deformability are among the
optimal candidates for compressible supercapacitor electrode materials. However …

Bionic sensors have extensively served smart robots, medical equipment, and flexible
wearable devices. The luminescent pressure‐acoustic bimodal sensor can be treated as a …

The rapid, energy‐efficient, scalable preparation of high‐strength, flexible, multifunctional
nanostructured aerogels is highly desired yet challenging. Here, an ambient‐pressure‐dried …

Flexible pressure sensors embody outstanding mechanical and sensing performance,
particularly in the fields of personal health monitoring and artificial intelligence, while …

Currently, it remains challenging to balance intrinsic stiffness with programmability in most
vitrimers. Simultaneously, coordinating materials with gel-like iontronic properties for …

The trade-off between high sensitivity and wide detection range remains a challenge for
flexible capacitive pressure sensors. Gradient structure can provide continuous deformation …

Highly sensitive self‐powered stretchable electronic skins with the capability of detecting
broad‐range dynamic and static pressures are urgently needed with the increasing …