Since wearable technologies for telemedicine have emerged to tackle global health
concerns, the demand for well‐attested wearable healthcare devices with high user comfort …

Soft bioelectronic devices can be interfaced with anatomically curved organs, such as the
heart, brain and skin, to provide continuous analysis of physiological information. However …

Robust interfacial compliance is essential for long-term physiological monitoring via skin-
mountable ionic materials. Unfortunately, existing epidermal ionic skins are not compliant …

Stretchable electronics commonly assemble multiple material modules with varied bulk
moduli and surface chemistry on one packaging substrate. Preventing the strain-induced …

The great challenges for existing wearable pressure sensors are the degradation of sensing
performance and weak interfacial adhesion owing to the low mechanical transfer efficiency …

Metal film-based stretchable conductors are essential elements of flexible electronics for
wearable, biomedical, and robotic applications, which require strain-insensitive high …

Fully π-conjugated polymers with rigid aromatic units are promising for flexible
optoelectronic devices, but their inherent brittleness poses a challenge for achieving high …

The low electrical conductivity of conductive hydrogels limits their applications as soft
conductors in bioelectronics. This low conductivity originates from the high water content of …

The current wearable devices are largely rigid and bulky, which calls for the development of
next-generation soft biocompatible technologies. Another limitation is that conventional …

The patient‐centered healthcare requires timely disease diagnosis and prognostic
assessment, calling for individualized physiological monitoring. To assess the postoperative …