You don't need a big laser to make laser-induced graphene. Scientists are using a very small visible beam to burn the foamy form of carbon into microscopic patterns.
You don't need a big laser to make laser-induced graphene. Scientists are using a very small visible beam to burn the foamy form of carbon into microscopic patterns.
Researchers have developed nanoscale thermal switches that are key to thermal management of nanoscale devices, refrigeration, data storage, thermal computing and heat management of buildings.
Nanoparticles easily enter into cells. New insights about how they are distributed and what they do there are shown for the first time by high-resolution 3D microscopy images.
You don't need a big laser to make laser-induced graphene. Scientists are using a very small visible beam to burn the foamy form of carbon into microscopic patterns.
Bubbly buildup can hinder many industrial processes, but a new method can reduce or even eliminate it.
Researchers have developed nanoscale thermal switches that are key to thermal management of nanoscale devices, refrigeration, data storage, thermal computing and heat management of buildings.
Nanoparticles easily enter into cells. New insights about how they are distributed and what they do there are shown for the first time by high-resolution 3D microscopy images.
Scientists describe a way to increase the sensitivity of biological detectors to the point where they can be used in mobile and wearable devices.
'Atomaterials' is short for 'atomic materials', so called because their properties depend on the precise configuration of their atoms.
Researchers develop an improved energy-harvesting device that can convert heat to electricity.