Modeling Sunlight Harvesting in Nanostructures
Predicting nanosystems with unanticipated properties can advance next-generation solar panels and electronics.
Predicting nanosystems with unanticipated properties can advance next-generation solar panels and electronics.
Materials based on clusters of atoms called “super-ions” may revolutionize the whole solar cell industry.
Superacid treatment of semiconductors could lead to atomically perfect transparent displays and energy-efficient computer chips.
Disentanglement reveals exotic magnetic properties in a ytterbium-based compound.
Scientists apprehended the atomic-scale, microscopic mechanism that limits light emission in LED lighting.
Computer-designed molecular complex can be used in halogen-free electrolytes for batteries with superior performance.
Junctions between conductive graphene and insulating nanotubes could lead to faster electronics and computers.
The orientation-dependent thermal properties of black phosphorous could be used to keep microchips cool and improve their efficiency.
Liquid metal transforms solid alloy into pore-filled structure that could be used in future batteries.
Inexpensive method allows synthesis of a tiny solar cell that pumps out fuel.
New tabletop laser achieves sought-after energies needed for advanced characterization with unprecedented precision and range.
Templates allow for materials with deliberate sizes and shapes for solar cells and electricity generation from waste heat.