A team of scientists has for the first time measured the elusive weak interaction between protons and neutrons in the nucleus of an atom. Through a unique neutron experiment at Oak Ridge National Laboratory, experimental physicists resolved the weak force between the particles at the atom's core, predicted in the Standard Model that describes the elementary particles and their interactions.
Researchers at Argonne have developed a virtual cooperative fuel research engine that will help probe how a fuel's chemical kinetics translates into its octane rating.
Scientists explore how drought-tolerant plants communicate to nearby microorganisms, suggesting ways to engineer more resilient bioenergy crops.
A discovery by researchers at the U.S. Department of Energy's Lawrence Berkeley National Laboratory and the Joint Center for Artificial Photosynthesis shows that recycling carbon dioxide into valuable chemicals and fuels can be economical and efficient - all through a single copper catalyst.
An experiment that aims to gain new insight into the force that binds all matter together has recently completed its first phase of data collection. The Gluonic Excitations Experiment, or GlueX, is designed to produce and study hybrid mesons, which are particles that are built of the same stuff as ordinary protons and neutrons: quarks bound together by the "glue" of the strong force. But unlike ordinary mesons, the glue in hybrid mesons behaves differently by actively contributing to the particles' properties.
Scientists devise new approach that gathers data on the interplay between permafrost, soil, and vegetation.
In Nature Biotechnology, as more and more researchers continue to assemble new genome sequences of uncultivated viruses, researchers at the U.S. Department of Energy (DOE) Joint Genome Institute (JGI) led a community effort to develop guidelines and best practices for defining virus data quality.
Distortion of water droplet surface may increase the likelihood of the droplet freezing.
Future Loss of Arctic Sea-Ice Cover Could Contribute to the Substantial Decrease in California's Rainfall
A new modeling framework helps understand the consequences of future sea-ice loss in the Arctic.
Magnetic field lines tangled like spaghetti in a bowl might be behind the most powerful particle accelerators in the universe. That's the result of a new computational study by researchers from the Department of Energy's SLAC National Accelerator Laboratory, which simulated particle emissions from distant active galaxies.
In new research from the U.S. Department of Energy's Argonne National Laboratory and published in Science, scientists have identified a new catalyst that uses only about a quarter as much platinum as current technology by maximizing the effectiveness of the available platinum.
A new phenomena forms vortices that trap particles, impeding electron avalanches that harm fusion reactors.
Argonne researchers have demonstrated a new technique's viability for membranes.
Researchers discover how certain bacteria may safeguard plant growth during a drought, making way for strategies to improve crop productivity.
A future warmer world will almost certainly feature a decline in fresh water from the Sierra Nevada mountain snowpack. Now a new study by Lawrence Berkeley National Laboratory that analyzed the headwater regions of California's 10 major reservoirs, representing nearly half of the state's surface storage, found they could see on average a 79 percent drop in peak snowpack water volume by 2100.
The mechanism responsible for creating intense magnetic fields in laser-driven plasmas also helps tear the fields apart.
Nuclear physicists analyzing data from the PHENIX detector at the Relativistic Heavy Ion Collider (RHIC) have published additional evidence that collisions of miniscule projectiles with gold nuclei create tiny specks of the perfect fluid that filled the early universe.
An experiment has demonstrated, for the first time, electronic switching in an exotic, ultrathin material that can carry a charge with nearly zero loss at room temperature. Researchers demonstrated this switching when subjecting the material to a low-current electric field.
Feature describes striking similarity of laboratory research findings with observations of the four-satellite Magnetospheric Multiscale Mission that studies magnetic reconnection in space.
A long-standing problem in optics holds that an improved resolution in imaging is offset by a loss in the depth of focus. Now, scientists are joining computation with X-ray imaging as they develop a new and exciting technique to bypass this limitation.
News Release RICHLAND, Wash. -- A new collaborative study led by a research team at the Department of Energy's Pacific Northwest National Laboratory and University of California, Los Angeles could provide engineers new design rules for creating microelectronics, membranes, and tissues, and open up better production methods for new materials.
To understand how damage from high-energy X-rays affects imaging studies, scientists supported by the Department of Energy shot the most powerful X-ray laser in the world at a series of atoms and molecules. Surprisingly, the atoms within the molecules acted far differently than the isolated ones.
Scientists mapping out the quantum characteristics of superconductors--materials that conduct electricity with no energy loss--have entered a new regime. Using newly connected tools named OASIS at Brookhaven Lab, they've uncovered previously inaccessible details of the "phase diagram" of one of the most commonly studied "high-temperature" superconductors.
The Health Effects Institute (HEI) convened an Energy Research Committee to help ensure the protection of public health during such development. A symposium at the 2018 Society for Risk Analysis (SRA) Annual Meeting will summarize the Committee's review approach and preliminary findings and provide initial options for future research intended to fill knowledge gaps.
Scientists have demonstrated an x-ray imaging technique that could enable the development of smaller, faster, and more robust electronics that exploit electron spin.