An international team of researchers conducted a comparative genomic analysis to gain insights into the genome structure and evolution of the diatom Fragillariopsis cylindrus, as well as its role in the Southern Ocean.
A new streamlined process could quickly pare down heaps of algae species into just a few that hold the most promise for making biofuel.
In a series of four articles published in the Database issue of the Nucleic Acids Research journal, DOE JGI researchers report on the latest updates to several publicly accessible databases and computational tools that benefit the global community of microbial researchers.
New crystallography finding benefits bioenergy industry.
In a proof-of-concept study published in Nature Physics, researchers drew magnetic squares in a nonmagnetic material with an electrified pen and then "read" this magnetic doodle with X-rays.
Defects and jagged surfaces at the edges of nanosized platinum and gold particles are key hot spots for chemical reactivity, researchers confirmed using a unique infrared probe at Berkeley Lab.
Whether producing new types of power or cleaning old waste sites, the reaction between water and positively charged particles from acids is crucial. To gain insight, scientists isolated certain structures of a proton being surrounded by an increasing number of water molecules.
With a new approach, scientists can fabricate single crystals of compositions that are unstable at the high temperatures. The team's process is simple and low cost. It enables fabrication of complex shapes with single crystals. These shapes could enable new materials for solar cell devices or other uses.
A new technique could allow the exploitation of polarized positron beams for a range of uses, including improved product manufacturing.
Scientists need ultra-pure helium for a wide range of experiments. Researchers demonstrated an approach that reaches a level of precision several orders of magnitude beyond that of any other technique.
Could adding defects make a good material better? Scientists have found that linear defects in a promising thin film create one-atom-thick metallic wires. These wires cross the otherwise intact material, offering a way to channel electrons and photons, tiny packets of light
Sterile neutrinos could be part of the mysterious "dark world," including the dark matter that makes up about a quarter of the universe. True evidence that sterile neutrinos exist would change our understanding of the universe. This study narrows the search for these particles.
A new material, called "rewritable magnetic charge ice," has an unprecedented degree of control over local magnetic fields. This material has write-read-erase capabilities at room temperature, which may have implications for new computing technologies.
For the first time, X-ray scientists have access to wavelength-tunable circularly polarized free-electron laser pulses in the range between 280 and 1200 eV. Several types of experiments can benefit from the short and intense pulses.
New information on the details of a key protein, obtained using DOE user facilities, could help scientists design ways to inhibit tumor growth without activating other tumor-producing pathways.
Scientists at the Department of Energy's Oak Ridge National Laboratory have found a simple, reliable process to capture carbon dioxide directly from ambient air, offering a new option for carbon capture and storage strategies to combat global warming.
Winter cold snaps often bring tragic stories of Americans killed by carbon monoxide from gas-powered generators. While we currently rely on carbon monoxide detectors, new research points the way to a new approach: direct elimination of the gas.
New research impacts an ongoing debate about how platinum catalysts create carbon dioxide. The debate influences a wide array of technologies, from automobile exhaust control systems to hydrogen fuel cells.
Researchers determined that lithium ions are more intimately connected with liquids used in batteries. The findings could eventually lead to a larger role for lithium-ion batteries.
PPPL Physicists Make First-Ever Direct Observation of Collisional Plasmoid Instability During Magnetic Reconnection in a Laboratory Setting
PPPL physicists have for the first time directly observed a phenomenon that had previously only been hypothesized to exist. The phenomenon, plasmoid instabilities that occur during collisional magnetic reconnection, had until this year only been observed indirectly using remote-sensing technology.
Scientists discovered a new kind of water molecule whose shape has been altered to conform to the symmetry of the environment in which it is trapped.
Theoretical physicists at the Department of Energy's SLAC National Accelerator Laboratory used computer simulations to show how special light pulses could create robust channels where electricity flows without resistance in an atomically thin semiconductor.
An analysis of the strongest tropical storms over the last half-century reveals that higher global temperatures have intensified the storms via enhanced rainfall. Rain that falls on the ocean reduces salinity and allows typhoons to grow stronger.
In a new study from the U.S. Department of Energy's Argonne National Laboratory, researchers used extremely high magnetic fields - equivalent to those found in the center of neutron stars - to alter electronic behavior. By observing the change in the behavior of these electrons, scientists may be able to gain an enriched understanding of material behavior.
Researchers identify patterns that could be valuable resource for superconductivity research; ORNL researchers developing approaches to preserve forests, wildlife; ORNL supercomputer helping scientists push boundaries; New measurement technique opens pathway to new graphene-based energy, electronic applications; ORNL cryogenic memory cell circuit could advance pathway to quantum computing;