Understanding Nature’s Choreography in Batteries
Charge-discharge chemistry for lithium ion batteries elucidated by theoretical calculations.
Charge-discharge chemistry for lithium ion batteries elucidated by theoretical calculations.
New computational technique creates high resolution maps of subsurface CO2 after geologic sequestration.
Using newly synthesized polymers results in enhanced light harvesting capabilities and an unprecedented generation of photocurrent.
A simple, robust catalyst is capable of both water oxidation and carbon dioxide splitting, two difficult yet key reactions for solar energy conversion.
Precise control of nanowire geometry and optical environment enables tuning of lasing properties.
Discovering how polymer organization on the molecular level affects electric charge movement in organic solar cells.
Adding an oxide sieve, a layer containing nanocavities, to a catalyst surface makes the catalyst selective for specific reactions and increases efficiencies for chemical processes.
Rapid creation of carbon-fluorine bonds may lead to improved production of drugs, agrochemicals and positron emission tomography (PET) tracers.
New theory describes light management in thin-film solar cells.
A step closer to an artificial system using sunlight to produce hydrogen from water
Squeezing creates new class of material built from clusters of carbon atoms.
Nanoscale features in rocks enable more carbon dioxide to be trapped as a solid carbonate material underground.