A breathable, stretchable nanofiber sensor uses a framework-enhanced polymer to harvest motion energy and capture precise finger and joint movement for advanced wearable communication and monitoring applications.
A self-powered fabric with nanostructured materials converts sound into electrical signals and uses deep learning to recognize speech, turning clothing into a soft and responsive voice interface.
Scientists develop strong, flexible carbon nanotube fibers that retain energy storage capacity and conductivity after bending and washing, paving the way for advanced electronic textiles.
A printing method using surface energy control allows a single stamp to create multiple patterns, simplifying electronics manufacturing and flexible device production.
First systematic comparison of electronic textile durability establishes testing protocol and reveals optimal designs for creating washable smart fabrics that survive repeated laundering.
Smart nanofabric integrates impact protection, real-time health monitoring, and radiative cooling into a lightweight, durable textile for advanced sportswear.