Tiny cages can trap and release inert argon gas atoms, allowing their further study and providing a new way to capture rare gases.
Engineered stacked perovskite layers harvest light or create light via layer edges.
Real-time imaging shows how hydrogen causes oxygen to leave a buried surface, transforming an oxide into a metal.
Scientists reveal structural, chemical changes as nickel-cobalt particles donate electrons, vital for making better batteries, fuel cells.
Scientists combine biology, nanotechnology into composites that light up upon chemical stimulation.
Scientists design outstanding catalysts by controlling the composition and shape of these tiny plate-like structures on the nanoscale.
Scientists set record resolution for patterning materials at sizes as small as a single nanometer using microscope-based lithography.
The quest for solar cell materials that are inexpensive, stable, and efficient leads to a breakthrough in thin film organic-inorganic perovskites.
Scientists invent a new approach to creating ordered patterns of nitrogen-vacancy centers in diamond, a promising approach to storing and computing quantum data.
Scientists coax simple molecules into forming complex three-dimensional structures for faster, more energy-efficient electronics.
Scientists advance the precision controlled synthesis of gold nanocrystals, which could create new catalysts that improve industrial energy efficiency.
Using DNA linkers to form cages for nanoparticles redefines the rules for assembling nanoparticles
