Noncovalent interactions, which usually feature tunable strength, reversibility, and
environmental adaptability, have been recognized as driving forces in a variety of biological …

With steadily growing environmental problems by synthetic compounds, using eco-friendly
biomass-derived biopolymers and other native materials has drawn tremendous attention …

Conducting polymer hydrogels are promising materials in soft bioelectronics because of
their tissue‐like mechanical properties and the capability of electrical interaction with …

Flexible conductive materials with intrinsic structural characteristics are currently in the
spotlight of both fundamental science and advanced technological applications due to their …

Conductive hydrogels can be prepared by incorporating various conductive materials into
polymeric network hydrogels. In recent years, conductive hydrogels have been developed …

Hydrogels have emerged as promising materials for flexible electronics due to their unique
properties, such as high water content, softness, and biocompatibility. In this perspective, we …

Flexible wearable devices have achieved remarkable applications in health monitoring
because of the advantages of multisignal collecting and real-time wireless transmission of …

Hydrogels that combine the integrated attributes of being adhesive, self-healable,
deformable, and conductive show great promise for next-generation soft robotic/energy …

Flexible electronic devices (FEDs) based on hydrogels are attracting increasing interest, but
the fabrication of hydrogels for FEDs with adhesiveness and high robustness in harsh …

Growing health awareness triggers the public's concern about health problems. People want
a timely and comprehensive picture of their condition without frequent trips to the hospital for …