Technology out-powers even the best supercapacitors and could drive new applications in radio communications and compact electronics.

Technology out-powers even the best supercapacitors and could drive new applications in radio communications and compact electronics.
Ultrathin, flexible optoelectronic devices – including LEDs the size of individual neurons – are lighting the way for scientists in optogenetics and beyond.
Pernice group at KIT use polycrystalline diamond for the fabrication of wafer-based optomechanical circuits.
NRL team develop a vapor sensor based on new monolayer materials that shows great potential for future nanoscale electronic devices.
Scientists produce a paper-like ceramic material which is as hard as copper, yet flexible enough to be rolled up or folded. The material has another advantage: it is electrically conductive.
Chinese researchers report a method to coat graphene with a transition metal oxide, with the aim to create new, better electrodes for Li-ion batteries.
New optical technologies using “metasurfaces” capable of the ultra-efficient control of light are nearing commercialization.
New center will allow researchers to work closely together on projects in the field of regenerative medicine, an area with a promising future.
High-Speed Integrated Circuits laboratory team demonstrated this self-healing capability in tiny power amplifiers.
Fluorescence sensing along with molecular self-assembly leads to a highly selective sensory system for biologically important molecules.