The boundary between electronics and biology is blurring with the first detection by researchers at Oak Ridge National Laboratory of ferroelectric properties in an amino acid called glycine. A multi-institutional research team used a combination of experiments and modeling to identify and explain the presence of ferroelectricity in the simplest known amino acid—glycine.
According to recent research at Oak Ridge National Laboratory, light of specific wavelengths can be used to boost an enzyme's function by as much as 30-fold, potentially establishing a path to less expensive biofuels, detergents and a host of other products.
Materials such as bismuth samarium ferrite and lead zirconium titanate are often called "materials on the brink" in reference to their enigmatic behavior, which is closely tied to the transition between two different phases. Recent electron microscopy sponsored by Oak Ridge National Laboratory has helped build knowledge about these materials and related flexoelectric theory, which describes materials that change polarization when bent.
Scientists have for decades contemplated communicating via neutrinos when other methods won’t do. For the first time, physicists and engineers at Fermi National Accelerator Laboratory’s MINERvA detector have successfully transmitted a message through 240 m of rock using these ghost-like particles.
Small-angle neutron scattering instrument at the High Flux Isotope Reactor at Oak Ridge National Laboratory can be used for a surprising variety of biological studies. Recently, researchers in The Netherlands successfully analyzed and characterized the internal protein structure and composite particles of a cow named Martha.
Scientists have recently carried out the first investigation of 2D fermion liquids using neutron scattering, and discovered a new type of very short wavelength density wave. The team believes their discovery will interest researchers looking at electronic systems, since high temperature superconductivity could result from this type of density fluctuations.
Common material such as polyethylene used in plastic bags could be turned into something far more valuable through a process being developed at Oak Ridge National Laboratory. In a recently published paper, a team led by Amit Naskar of the Materials Science and Technology Division outlined a method that allows not only for production of carbon fiber but also the ability to tailor the final product to specific applications.
While several recent studies suggest that much of the world is likely to experience freshwater shortages as the population increases and temperatures rise, determining the relative impact of each has been difficult. A recent Oak Ridge National Laboratory paper outlines a process that might help.
Identifying chemicals from a distance could take a step forward with the introduction of a two-laser system being developed at Oak Ridge National Laboratory. The technique uses a quantum cascade laser to "pump," or strike, a target, and another laser to monitor the material's response as a result of temperature-induced changes. That information allows for the rapid identification of chemicals and biological agents.
Oak Ridge National Laboratory's Spallation Neutron Source's Spallation Neutrons and Pressure Diffractometer (SNAP) puts the squeeze on methane hydrate cages, unraveling their high-pressure structure.
Determining with precision the carbon balance of North America is complicated, but researchers at Oak Ridge National Laboratory have devised a method that considerably advances the science. In developing their approach, the team took advantage of inventory records from the U.S., Canada, and Mexico that track changes in the amount of carbon in various reservoirs such as plants, soils, and wood.
Oak Ridge National Laboratory's Jaguar supercomputer has completed the first phase of an upgrade that will keep it among the most powerful scientific computing systems in the world. When the upgrade process is completed this autumn, the system will be renamed Titan and will be capable of 10 to 20 petaflops.
A technology developed at Oak Ridge National Laboratory could streamline and strengthen the process for siting power plants while potentially enhancing the nation's energy security.
Researchers at Oak Ridge National Laboratory are sharing computational resources and expertise to improve the detail and performance of the Community Earth System Model, a scientific application code that is the product of one of the world's largest collaborations of climate researchers.
A mysterious phenomenon detected by space probes has finally been explained, thanks to a massive computer simulation that was able to precisely align with details of spacecraft observations. The finding could not only solve an astrophysical puzzle, but might also lead to a better ability to predict high-energy electron streams in space that could damage satellites.
Inventing new metal products is tough. R&D finds out how recent R&D 100 Award-winning technologies have fared in the marketplace.
Individual atoms can make or break electronic properties in one of the world's smallest known conductors—quantum nanowires. Microscopic analysis at Oak Ridge National Laboratory is delivering a rare glimpse into how the atomic structure of the conducting nanowires affects their electronic behavior.
A series of neutron scattering experiments at Oak Ridge National Laboratory and other research centers is exploring the key question about a long-sought quantum state of matter called supersolidity: Does it exist?
Atomic-level defects in graphene could be a path forward to smaller and faster electronic devices, according to a study led by researchers at Oak Ridge National Laboratory. The study suggests that point defects, composed of silicon atoms that replace individual carbon atoms in graphene, could aid attempts to transfer data on an atomic scale by coupling light with electrons.
By using a novel technique to better understand mineral growth and dissolution, researchers at Oak Ridge National Laboratory are improving predictions of mineral reactions and laying the groundwork for applications ranging from keeping oil pipes clear to sequestering radium.
To better understand the fundamental behavior of molecules at surfaces, researchers at Oak Ridge National Laboratory are combining the powers of neutron scattering with chemical analysis. Scientists have a fundamental interest in how molecules behave at solid surfaces because surface interactions influence chemistry. Understanding these interactions allows researchers to tailor materials for a specific desirable outcome.
The prospect of electronics at the nanoscale may be even more promising with the first observation of metallic conductance in ferroelectric nanodomains by researchers at Oak Ridge National Laboratory.
Soldiers returning from war who have lost a leg could lead a more active lifestyle with the help of a technology being developed by Oak Ridge National Laboratory researchers. The researchers are perfecting a portable, wearable system to measure walking patterns that can be applied to real-world activities in a variety of settings.
Supercomputer simulations at Oak Ridge National Laboratory are giving scientists access to a key class of proteins involved in drug detoxification. Researchers have performed simulations to observe the motions of water molecules in a class of enzymes called P450s, which are responsible for processing a large fraction of drugs taken by humans.
The sharp decrease in global carbon dioxide emissions attributed to the worldwide financial crisis in 2009 quickly rebounded in 2010, according to research supported by the Carbon Dioxide Information Analysis Center at Oak Ridge National Laboratory.