Natural organisms, such as lobsters, lotus, and humans, exhibit exceptional mechanical
properties due to their ordered structures. However, traditional hydrogels have limitations in …

Biobased materials are increasingly gaining prominence in the field of advanced ecofriendly
materials, and biomass-derived functional composites are exhibiting immense promise due …

Conductive hydrogels (CHs) with high sensitivity and multifunctional property are
considered as excellent materials for wearable devices and flexible electronics. Surface …

The development of biomimetic electronic skin (e-skin) has significant value in many fields,
including health monitoring, soft robotics, wearable electronic devices, and human-machine …

With the development of various gel‐based flexible sensors, novel gels with multiple
integrated and efficient properties, particularly recyclability, have been developed. Herein, a …

Zwitterionic hydrogels have received considerable attention owing to their characteristic
structures and integrating multifunctionality. However, the superhydrophilicity-induced poor …

Using smart electroactive hydrogels with emerging bioelectronics to monitor wound status
wirelessly in real-time is a promising approach as an unremitting therapy for refractory …

Bionic electronic skin, with its integrated biological functions, is capable of sensing and
responding to external stimuli, potentially surpassing the ideal flexibility of natural skin in …

Artificial electronic skin (E‐skin), a class of promising materials mimicking the physical‐
chemical and sensory performance of the human skin, has gained extensive interest in the …

Wearable electronics based on conductive hydrogels (CHs) easily suffer from prolonged
response times, reduced wearing comfort, shortened service lives, and impaired signal …