Over the years, researchers have made significant strides in the development of novel
flexible/stretchable and conductive materials, enabling the creation of cutting-edge …

The flourishing development of flexible healthcare sensing systems is inseparable from the
fundamental materials with application-oriented mechanical and electrical properties …

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

E‐skins based on conductive hydrogels are regarded as ideal candidates for sensing
application. However, limited by the constructed materials and strategies, the current …

Conductive hydrogels are considered as an ideal candidate for next-generation electronic
skin due to their excellent softness and conductivity. In particular, the collagen-based …

Flexible triboelectric nanogenerators (TENGs) with multifunctional sensing capabilities offer
an elegant solution to address the growing energy supply challenges for wearable smart …

Stretchable ionic skins are intriguing in mimicking the versatile sensations of natural skins.
However, for their applications in advanced electronics, good elastic recovery, self-healing …

Endowing textiles with perceptual function, similar to human skin, is crucial for the
development of next-generation smart wearables. To date, the creation of perceptual textiles …

Robust damage-tolerant hydrogel fibers with high strength, crack resistance, and self-
healing properties are indispensable for their long-term uses in soft machines and robots as …

Conductive hydrogels have potential applications in shielding electromagnetic (EM)
radiation interference in deformable and wearable electronic devices, but usually suffer from …