The seamless integration of emerging triboelectric nanogenerator (TENG) technology with
traditional wearable textile materials has given birth to the next‐generation smart textiles, ie …

Electrospinning is a mature and efficient method to produce nanofiber materials with
different dimensions and morphologies. In the context of increasingly prominent human …

Developing functional textiles with a cooling effect is important for personal comfort in
human life and activities. Although existing passive cooling fabrics exhibit promising cooling …

Electronic skin can detect minute electrical potential changes in the human skin and
represent the body's state, which is critical for medical diagnostics and human–computer …

Electrospun nanofiber demonstrates advantages in permeability, surface wettability,
mechanical figurability and function integrability, capable of catering to the multi-scenario …

As smart wearable electronics become commonplace, there exists an unmet need for
stretchable, durable and breathable electrodes that can be easily integrated with the …

The development of wearable electronic skins (E-skins) requires devices with high flexibility,
breathability, and antibacterial activity, as in sports sensing technology. Here, we report a …

Fiber electronics with mechanosensory functionality are highly desirable in healthcare,
human–machine interfaces, and robotics. Most efforts are committed to optimize the …

Rapid developments of artificial intelligence have increasingly necessitated wearable and
functionalized fabric-based triboelectric nanogenerators (F-TENGs). However, conventional …

Many biomaterials have been proposed as eco-friendly piezoelectric materials. This
research investigates the piezoelectricity of an electrospun silk nanofiber membrane for …