Discovery comes as researchers set out to grow nanowires of a compound semiconductor on top of a sheet of graphene.

Discovery comes as researchers set out to grow nanowires of a compound semiconductor on top of a sheet of graphene.
Argonne scientists see nanoparticles form larger structures in real time.
Cornell scientists develop a novel process of spreading extremely thin organic transistors, and used synchrotron X-rays to watch how the films crystallize.
Nanoparticles can cross the blood-brain barrier and send a significantly increased level of AZTTP to HIV-infected cells.
Fabricated nanorods are not only straight and tall (at least by nano-standards), but also have an optimal crystal structure.
Swiss researchers show that nanosilver is quickly transformed into less problematic substances on its way to the wastewater treatment plant.
Absorbent nanostructures can neutralize pore-forming toxins and remove a broad class of dangerous toxins.
Project is titled “Silicon-based Biomaterials for an Electrical Study of Single-Neuron Dynamics.”
Ultrathin, flexible optoelectronic devices – including LEDs the size of individual neurons – are lighting the way for scientists in optogenetics and beyond.
Thin germanium films, with properties similar to graphene, could lead to lighter, faster electronics.