A scalable method for fabricating electronic whiskers (e-whiskers)—a class of electronic skin—for sensing a variety of external stimuli, including proximity, texture mapping, surface roughness, material stiffness, force, and temperature.
A scalable method for fabricating electronic whiskers (e-whiskers)—a class of electronic skin—for sensing a variety of external stimuli, including proximity, texture mapping, surface roughness, material stiffness, force, and temperature.
Graphene sensors with high-resolution features are produced on flexible tapes for wearable electronics via a simplified drop-cast-and-transfer process.
Carbon nanotube surfaces as ultrafast electron sources could influence the next generation of attosecond science and light-wave electronics research.
Sometimes the answer to a problem is exactly where you would expect it to be.
Lithium-metal batteries can hold up to 10 times more charge than batteries that currently power our phones, laptops, and cars; but, they have one fatal flaw…
Researchers create soft robots that can sense touch, pressure, movement and temperature.
Researchers from the University of Massachusetts and Hewlett Packard Labs present a memristor platform for analog computations and forecast a device performance at least 16 times greater than purely digital solutions.
Professor Peter Coveney and co-workers from University College London elucidate the process that drives the exfoliation of graphite into graphene sheets using molecular dynamic simulations.
Robust electronic skin by utilizing supramolecular chemistry to produce a tough, self-healing elastic material.
Prof. Subodh Mhaisalkar of Nanyang Technological University, Singapore discusses the future of perovskite optoelectronics in an interview with the editors of Energy Technology.