Researchers combine solar energy, electrochemistry, and thermal catalysis to remove the need for fossil fuel-driven chemical conversions.
Extreme stars may have mountains like those on moons in our solar system. If so, they could produce detectable oscillations of space and time.
Requiring consistency between the physics of neutron stars and quark matter leads to the first astrophysical constraint on this exotic phase of matter.
Theorists propose a new approach to electroluminescent cooling that works like inverted solar photovoltaic cells.
Ultrafast electron diffraction imaging reveals atomic rearrangements long suspected to be crucial in the photochemistry of bromoform.
Quantum ghost imaging of live plants at light levels lower than starlight gives new perspectives on plant processes.
A new approach to applying quantum chromodynamics paves the way for a deeper understanding of the strong nuclear interaction.
Integrating machine learning with real-time adaptive control produces high-performance plasmas without edge instabilities, a key for future fusion reactors.
Excess oxygen on the surface of the metal oxide catalyst copper oxide promotes hydrogen oxidation but suppresses carbon monoxide oxidation.
Particle lifetime measurements with early data from the Belle II experiment at the SuperKEKB accelerator demonstrate the experiment’s high precision.
Ultrafast electron imaging captures never-before-seen nuclear motions in hydrocarbon molecules excited by light.
A comparison of throughput measurements and analytical capacity estimates for quantum networks finds surprising patterns.
