Scientists identify new details of how a sugar-signaling molecule helps regulate oil production in plant cells. The work could point to new ways to engineer plants to produce substantial amounts of oil for use as biofuels or in the production of other oil-based products.
New 3D maps of water distribution during cellular membrane fusion could lead to new treatments for diseases associated with cell fusion. Using neutron diffraction at Oak Ridge National Laboratory, scientists made the first direct observations of water in lipid bilayers modeling cell membrane fusion.
Chemists at Oak Ridge National Laboratory have demonstrated a practical, energy-efficient method of capturing carbon dioxide directly from air. If deployed at large scale and coupled to geologic storage, the technique may bolster the portfolio of responses to global climate change.
Young-Shin Jun, professor of energy, environmental & chemical engineering in the School of Engineering & Applied Science, and Quingun Li, a former doctoral student in her lab, are the first to measure the activation energy and kinetic factors of calcium carbonate's nucleation, both key to predicting and controlling the process.
Scientists improve our understanding of the relationship between fundamental forces by re-creating the earliest moments of the universe.
Argonne scientists and their collaborators have developed a new model that merges basic electrochemical theory with theories used in different contexts, such as the study of photoelectrochemistry and semiconductor physics, to describe phenomena that occur in any electrode.
Companies dealing with liquids ranging from wastewater to molten metals could benefit from a prize-winning device developed by researchers at the U.S. Department of Energy's (DOE) Princeton Plasma Physics Laboratory (PPPL) and Princeton University.
Using surface-enhanced Raman spectroscopy, Columbia Engineers are first to observe how CO2 is activated at the electrode-electrolyte interface; their finding shifts the catalyst design from trial-and-error paradigm to a rational approach and could lead to alternative, cheaper, and safer renewable energy storage.
Water molecules line up tiny particles to attach and form minerals; understanding how this happens impacts energy extraction and storage along with waste disposal.
X-ray experiments at the Department of Energy's SLAC National Accelerator Laboratory and Lawrence Berkeley National Laboratory have revealed that the pathways lithium ions take through a common battery material are more complex than previously thought.
Argonne researchers have used thin sheets of graphene to prevent photocathode materials from interacting with air, which increases their lifetimes. Photocathodes are used to convert light to electricity in accelerators and other physics experiments.
First direct measurement show how heavy particles containing a charm quark get caught up in the flow of early universe particle soup.
New detector enables electron microscope imaging at record-breaking resolution.
Argonne scientists have developed a neural network that can identify the structure of molecules in the gas phase, offering a novel technique for national security and pharmaceutical applications.
New method can make films of atomically thin carbon that are over a foot long.
Scientists looking to hydrogen as a next-generation clean energy source are developing hydrogen-sensing technologies, the most common of which uses palladium-based thin films because palladium readily absorbs hydrogen gas. However, it also readily absorbs other gases, decreasing the overall efficiency of these sensors. Researchers conducted a systematic study of hydrogen detection using the Extraordinary Hall Effect to measure the hydrogen magnetization response in cobalt-palladium thin films, and reports in the Journal of Applied Physics.
Argonne researchers are using nanoparticles to make photodetectors better able to handle the ultraviolet radiation produced in high-energy physics experiments.
For fusion power plants to be effective, scientists must find a way to trigger the low-to-high confinement transition, or "L-H transition" for short. Scientists have observed that the L-H transition is always associated with zonal flows of plasma. Theoretically, zonal flows in a plasma consist of both a stationary flow with a near-zero frequency and one that oscillates at a higher frequency called the geodesic acoustic mode. For the first time, researchers have detected GAM at two different points simultaneously within the reactor. This new experimental setup will be a useful diagnostic tool for investigating the physics of zonal flows, and their role in the L-H transition. The researchers report these findings in a new paper published in Physics of Plasmas.
Engage Engines! New Research Illuminates Complex Processes Inside Plasma Propulsion Systems for Satellites
New research involving computer simulations gives physicists confidence that they can peer into the inner workings of plasma thrusters.
The longstanding mystery of soot formation, which combustion scientists have been trying to explain for decades, appears to be finally solved, thanks to research led by Sandia National Laboratories.Soot is ubiquitous and has large detrimental effects on human health, agriculture, energy-consumption efficiency, climate and air quality.
Embargoed news release reports discovery of important new method for reducing instabilities in fusion plasmas without triggering fresh instabilities that can damage a fusion facility's walls.
A team of energy researchers from the University of Minnesota and University of Massachusetts Amherst has discovered that molecular motion can be predicted with high accuracy when confining molecules in small nanocages. The discovery could improve production of fuels and chemicals.
A new approach to atom probe tomography promises more precise and accurate measurements vital to semiconductors used in computers, lasers, detectors, and more.
Scientists can now measure 3-D structures of tiny particles with properties that hold promise for advanced sensors and diagnostics.
Researchers found that using bio-sequestration to capture carbon produced by U.S. coal-fired plants even after carbon capture and storage would require using 62 percent of the nation's arable land for that process, or 89 percent of all U.S. land with average forest cover. In comparison, offsetting the amount of carbon produced by manufacturing solar panels is 13 times less land, making it a far more viable option.