Accessing Dynamic Electrochemical Interfaces
A new technique reveals ultrafast processes in electrode-electrolyte interfaces under operating conditions.
A new technique reveals ultrafast processes in electrode-electrolyte interfaces under operating conditions.
By measuring the delay between when a molecule absorbs a photon from an X-ray and emits an electron, scientists gained insight into how electrons interact.
Big breakthrough in heavy-element chemistry shatters long-held assumptions about transplutonium elements.
Researchers propose a new approach to modeling adsorption processes that affect how pollutants move through soil, water, and rock.
Automatic speech recognition predicts earthquake fault displacement.
Researchers explore the effects of radiation and harsh chemicals to optimize americium-241 production.
Researchers use an X-ray free-electron laser to film electrons using finely tuned pairs of attosecond flashes.
Scientists characterize a promethium coordination complex for the first time, furthering the understanding of difficult-to-study lanthanide elements.
Scientists discover that bond covalency is an important property of excited states in molecules containing metal-sulfur bonds.
Heavy ligands, like polyoxometalates, open a new frontier in the chemistry of actinide elements.
Ultrafast X-ray scattering and advanced numerical simulations decode distinct molecular structures and their equilibration dynamics in metal-metal complexes.
Researchers combine solar energy, electrochemistry, and thermal catalysis to remove the need for fossil fuel-driven chemical conversions.