Wearable and implantable bioelectronics are receiving a great deal of attention because
they offer huge promise in personalized healthcare. Currently available bioelectronics …

Conductive hydrogels have generated great interest in biomedical and electrical fields.
However, conventional conductive hydrogels usually lack self-healing properties, which …

Mimicking biological neuromuscular systems' sensory motion requires the unification of
sensing and actuation in a singular artificial muscle material, which must not only actuate but …

Conductive hydrogels are a promising class of materials to design bioelectronics for new
technological interfaces with human body, which are required to work for a long‐term or …

Self-healing, adhesive conductive hydrogels are of great significance in wearable electronic
devices, flexible printable electronics, and tissue engineering scaffolds. However, designing …

Self-healing hydrogels with multifunctionality as a type of fascinating material show potential
application in various fields, such as biomedicine, tissue engineering, and wearable …

In addition, self-healability, a fascinating characteristic of the natural tissues, is also a
necessary property of conductive hydrogels, especially for those applied in self-healing …

Considerable progress in the synthesis and technology of hydrogels makes these materials
attractive structures for designing controlled-release drug delivery systems. In particular, this …

Materials with a temperature‐controlled reversible electrical transition between insulator and
conductor are attracting huge attention due to their promising applications in many fields …

Stimuli‐responsive hydrogels with decent electrical properties are a promising class of
polymeric materials for a range of technological applications, such as electrical …