Scientists obtain the first exclusive measurement of deeply virtual Compton scattering of electrons off helium-4, vital to obtaining an unambiguous 3-D view of quarks and gluons within nuclei.
Researchers from the Paul Sherrer Institute are studying a fascinating sample using neutrons at ORNL's Spallation Neutron Source. Their goal is to create an observable case of quantum spin ice, a bizarre magnetic state found in a special class of materials that could lead to advances in quantum computing.
The search for a more energy efficient and environmentally friendly method of ammonia production for fertilizer has led to the discovery of a new type of catalytic reaction.
The U.S. Department of Energy's Ames Laboratory has developed a method of computational analysis that can help predict the composition and properties of as-yet unmade high performance alloys.
Researchers at the Department of Energy's National Renewable Energy Laboratory (NREL) have found a way to create the equivalent of negative pressure by mixing two materials together under just the right conditions to make an alloy with an airier and entirely different crystal structure and unique properties.
ORNL studies how some trees respond and recover after heat waves; sensors collect data to uniquely identify vehicles; catalysis data calculations assist in overcoming limiting factor to break down olefins; ORNL tested NASA space probe instruments' ability to withstand Sun's extreme heat; using neutrons, ORNL observed enzyme behavior to determine certain antibiotics' ineffectiveness.
Now in its seventh year, this educational program encourages high school students to work with Argonne scientists. In 2018, students from Aqsa School investigated lithium-ion batteries at Argonne's Advanced Photon Source.
A team led by scientists at the Department of Energy's SLAC National Accelerator Laboratory turned tiny liquid jets that carry samples into the path of an X-ray beam into thin, free-flowing sheets, 100 times thinner than any produced before. They're so thin that X-rays pass through them unhindered, so images of the samples they carry come out clear.
Researchers develop a method of identifying gene expression patterns in drought-resistant plants.
Argonne researchers explore the benefits of adjusting the output of nuclear power plants according to the changing supply of renewable energy such as wind and solar power.
A Northwestern University and Argonne National Laboratory research team has developed an exceptional next-generation material for nuclear radiation detection that could provide a significantly less expensive alternative to detectors now in commercial use. Specifically, the high-performance material is used in a device that can detect gamma rays, weak signals given off by nuclear materials, and can easily identify individual radioactive isotopes. Potential uses include more widespread detectors for nuclear weapons and materials as well as applications in biomedical imaging, astronomy and spectroscopy.
New algorithm lets biologists harness massively parallel supercomputers to make sense of a protein "data deluge."
To better understand the near-term commercial potential for capturing and storing atmospheric carbon dioxide (CO2), researchers from Lawrence Livermore National Laboratory have mapped out how CO2 might be captured from existing U.S. ethanol biorefineries and permanently stored (or sequestered) underground.
Neutron scattering at Oak Ridge National Laboratory has revealed, in real time, the fundamental mechanisms behind the conversion of sunlight into energy in hybrid perovskite materials. A better understanding of this behavior will enable manufacturers to design solar cells with significantly increased efficiency.
From energy materials to disease diagnostics, new microscopy techniques can provide more nuanced insight. Researchers first need to understand the effects of radiation on samples, which is possible with a new device that holds tightly sealed liquid cell samples for transmission electron microscopy.
An international team, led by Berkeley Lab scientists, has demonstrated a breakthrough in the design and function of nanoparticles that could make solar panels more efficient by converting light usually missed by solar cells into usable energy.
Article describes effect of ion and electron heating on multiscale turbulence in fusion plasmas.
A new study calls for the U.S. to step up its laser R&D efforts to better compete with major overseas efforts to build large, high-power laser systems, and notes progress and milestones at the Department of Energy's Berkeley Lab Laser Accelerator (BELLA) Center and other sites.
Need stronger timber, better biofuel or new sources of green chemicals? A systems biology model built on decades of NC State research will accelerate progress on engineering trees for specific needs.
Engineers at the University of Washington have developed a new HD video streaming method that doesn't need to be plugged in. Their prototype skips the power-hungry components and has something else, like a smartphone, process the video instead.
For the first time, Lawrence Livermore National Laboratory (LLNL) has issued state-by-state energy and water flow charts in one location so that analysts and policymakers can find all the information they need in one place.
An international team led by Argonne National Laboratory makes breakthrough in understanding the chemistry of the microscopically thin layer that forms between the liquid electrolyte and solid electrode in lithium-ion batteries. The results are being used in improving the layer and better predicting battery lifetime.
A team of researchers from Lawrence Livermore National Laboratory (LLNL), Princeton University, Johns Hopkins University and the University of Rochester have provided the first experimentally based mass-radius relationship for a hypothetical pure iron planet at super-Earth core conditions. This discovery can be used to evaluate plausible compositional space for large, rocky exoplanets, forming the basis of future planetary interior models, which in turn can be used to more accurately interpret observation data from the Kepler space mission and aid in identifying planets suitable for habitability.
Magnesium ions move very fast to enable a new class of battery materials.
Research appearing today in Nature Communications finds useful new information-handling potential in samples of tin(II) sulfide (SnS), a candidate "valleytronics" transistor material that might one day enable chipmakers to pack more computing power onto microchips.