In a study published in the May 21, 2018 issue of the Proceedings of the National Academy of Sciences, a team of researchers - aided with supercomputing resources from the San Diego Supercomputer Center (SDSC) based at UC San Diego - created a dynamic computer simulation to delineate a key biological process that allows the body to repair damaged DNA.
A direct brain-to-computer interface may be on the horizon. New insights into how quickly microorganisms break down organic matter in warming Arctic soil. Using liquid salt that contains FLiBe to cool molten salt reactors. Compact, powerful solar.
Two Mississippi State physicists are seeing more than a decade of research yield a new high-precision result that will expand scientists' knowledge of the weak force in protons. Published this month in the international journal of science, Nature, the Q-weak project conducted by the Jefferson Lab Q-weak Collaboration sought to precisely measure the proton's weak charge, a quantity that signifies the influence the weak force exerts on protons. MSU Professors James Dunne and Dipangkar Dutta have worked with the consortia since 2004 and 2006, respectively.
An international team of researchers has found a new way to investigate how tuberculosis bacteria inactivate an important family of antibiotics: They watched the process in action for the first time using an X-ray free-electron laser, or XFEL.
Supercomputer simulations of neutrons' inner turmoil and a new method that filters out "noise" yield the highest-ever precision calculation of nucleon axial coupling, a property crucial to predicting neutron lifetime.
UPTON, NY--If you want to understand how a material changes from one atomic-level configuration to another, it's not enough to capture snapshots of before-and-after structures. It'd be better to track details of the transition as it happens. Same goes for studying catalysts, materials that speed up chemical reactions by bringing key ingredients together; the crucial action is often triggered by subtle atomic-scale shifts at intermediate stages.
A team led by Berkeley Lab researchers has enlisted powerful supercomputers to calculate a quantity, known as the "nucleon axial coupling" or gA, that is central to our understanding of a neutron's lifetime.
Scientists from the Department of Energy's Lawrence Berkeley National Laboratory (Berkeley Lab) have developed a way to use machine learning to dramatically accelerate the design of microbes that produce biofuel.
New research indicates a way to more accurately measure the electrical properties of plasma when it meets a solid surface.
A Northwestern University research team has found ways to stabilize a new battery with a record-high charge capacity. Based on a lithium-manganese-oxide cathode, the breakthrough could enable smart phones and battery-powered automobiles to last more than twice as long between charges.
Understanding how lithium reacts to pressure developed from charging and discharging a battery could mean safer, better batteries.
Researchers working at Berkeley Lab coupled graphene, a monolayer form of carbon, with thin layers of magnetic materials like cobalt and nickel to produce exotic behavior in electrons that could be useful for next-generation computing applications.
A team of Argonne researchers has reviewed 40 automotive market diffusion models from 16 countries to help determine how many plug-in electric vehicles consumers will buy over the next few decades.
Window material repeatedly switches from being see-through to blocking the heat and converting sunlight into electricity.
Scientists used an intense light to unveil hidden rivers that transport electricity with no loss.
Columbia investigators have made a major breakthrough in nanophotonics research, with their invention of a novel "home-built" cryogenic near-field optical microscope that has enabled them to directly image, for the first time, the propagation and dynamics of graphene plasmons at variable temperatures down to negative 250 degrees Celsius. If researchers can harness this nanolight, they will be able to improve sensing, subwavelength waveguiding, and optical transmission of signals.
A cross-campus collaboration led by Ulrich Wiesner, professor of engineering at Cornell University, has resulted in a novel energy storage device architecture that has the potential for lightning-quick charges for electronic devices.
Scientists added an imaging capability to Brookhaven Lab's Center for Functional Nanomaterials that could provide the optoelectronic information needed to improve the performance of devices for power generation, communications, data storage, and lighting.
An international team led by scientists at Berkeley Lab and UC Berkeley discovered how to exploit defects in nanoscale and microscale diamonds and potentially enhance the sensitivity of magnetic resonance imaging and nuclear magnetic resonance systems while eliminating the need for their costly and bulky superconducting magnets.
The Precision Reactor Oscillation and Spectrum Experiment (PROSPECT) has completed installation of a novel antineutrino detector that will probe the possible existence of a new form of matter - sterile neutrinos.
Neutral pion production is a major character in a story of mistaken identity worthy of an Agatha Christie novel.
MicroBooNE neutrino experiment cuts through the noise, clearing the way for signals made by the hard-to-detect particle.
Researchers at the Department of Energy's Oak Ridge National Laboratory made the first observations of waves of atomic rearrangements, known as phasons, propagating supersonically through a vibrating crystal lattice--a discovery that may dramatically improve heat transport in insulators and enable new strategies for heat management in future electronics devices.
Jet fuel, pantyhose and plastic soda bottles are all products currently derived from petroleum. Sandia National Laboratories scientists have demonstrated a new technology based on bioengineered bacteria that makes it feasible to produce all three from renewable plant sources.
A piezoelectric ceramic foam supported by a flexible polymer support provides a 10-fold increase in the ability to harvest mechanical and thermal energy over standard piezo composites, according to Penn State researchers.