Conductive hydrogels (CHs) are characterized by tissue-like mechanical properties, multiple
stimuli-responsive abilities and favourable biocompatibility, enabling their wearable devices …

Fabrics represent a unique platform for seamlessly integrating electronics into everyday
experiences. The advancements in functionalizing fabrics at both the single fibre level and …

The conductive hydrogels always suffered from high internal friction, large hysteresis, and
low capability of accurately predicting physical deformation, which seriously restricted their …

Swelling is ubiquitous for conventional hydrogels but is not favorable for many situations,
especially underwater applications. In this study, an anti‐swelling and mechanically robust …

Advanced conductive hydrogels demonstrate substantial potential for wearable devices.
Nevertheless, the transformative advance in soft electronics raises harsh requirements on …

The development of flexible conductive elastomers integrating renewable feedstock,
splendid mechanical property, and excellent weather resistance is of major interest and …

The conductive hydrogels with skin-like modulus have flourished as a promising soft
electronic material for health monitoring and human-machine interface systems …

Hydrogels with strong yet reversible mechanical and adhesive properties fabricated in a
facile and friendly manner are important for engineering and intelligent electronics …

Due to their intrinsic flexibility, tunable conductivity, multiple stimulus‐response, and self‐
healing ability, ionic conductive hydrogels have drawn significant attention in …

Piezoelectric hydrogel sensors are becoming increasingly popular for wearable sensing
applications due to their high sensitivity, self-powered performance, and simple preparation …