Imagine dropping your phone on the hard concrete sidewalk—but when you pick it up, you find its battery has already healed itself. A team of researchers from the University of Illinois at Urbana-Champaign and Argonne National Laboratory are exploring ways to design batteries that heal themselves when damaged.
The development of polymer nanostructures and nanoscale devices for a wide variety of applications could emerge from new information about the interplay between nanoscale interfaces in polymeric materials, thanks to research carried out at Argonne National Laboratory's Advanced Photon Source.
Identifying the composition of the Earth's core is key to understanding how our planet formed and the current behavior of its interior. While it has been known for many years that iron is the main element in the core, many questions have remained about just how iron behaves under the conditions found deep in the Earth. Until now.
Federally funded research can be a solution to some of the nation's top challenges, say government laboratory executives.
Argonne National Laboratory's Deborah Clayton speaks on topics including funding, peer review, entrepreneurship, nanotechnology research, and communicating research missions in a social networking environment.
Two experiments at the Large Hadron Collider have nearly eliminated the space in which the Higgs boson could dwell, scientists announced Tuesday. However, the ATLAS and CMS experiments see modest excesses in their data that could soon uncover the famous missing piece of the physics puzzle.
When it comes to the industrial production of chemicals, often the most indispensable element is one that you can't see, smell, or even taste. It's hydrogen, the lightest element of all. Researchers at Argonne National Laboratory have developed an efficient two-step process that electrolyzes hydrogen atoms from water molecules before combining them to make molecular hydrogen.
Using the Advanced Photon Source at Argonne National Laboratory, a group of Northwestern University and Argonne scientists have figured out the secrets of algae that can preferentially take up strontium over calcium—a task so difficult that it's not easily done even in a laboratory. The algae could form the basis of new technologies to clean up contaminated land or water.
When a skier rushes down a ski slope or a skater glides across an ice rink, a very thin melted layer of liquid water forms on the surface of the ice crystals, which allows for a smooth glide instead of a rough skid. In a recent experiment, scientists have discovered that the interface between the surface and bulk electronic structures of certain crystalline materials can act in much the same way.
In terms of emissions, just one pound of sulfur hexafluoride, a nontoxic gas used in electric insulation, is equivalent to about 11 tons of carbon dioxide. Energy Department experts are hunting down this and other fugitive carbon emissions and have already prevented the release of 600,000 metric tons of carbon equivalent.
A breakthrough in components for next-generation batteries could come from special materials that transform their structure to perform better over time. A team of researchers at Argonne National Laboratory discovered that nanotubes composed of titanium dioxide can switch their phase as a battery is cycled, gradually boosting their operational capacity.
Converting sunlight into electricity is not economically attractive because of the high cost of solar cells, but a recent, purely optical approach to improving luminescent solar concentrators may ease the problem, according to researchers at Argonne National Laboratory and Penn State University.
Although lithium-ion technology dominates headlines in battery research and development, a new element is making its presence known as a potentially powerful alternative: sodium. Sodium-ion technology possesses a number of benefits that lithium-based energy storage cannot capture, and Argonne National Laboratory is looking to improve the performance of ambient-temperature sodium-based batteries.
An advanced material that could help bring about next-generation "spintronic" computers has revealed one of its fundamental secrets to a team of scientists from Argonne National Laboratory and NIST.
Designing better ways to recycle spent nuclear fuel could make nuclear energy a safer solution to the global energy problem, but there are a lot of gaps in our chemical knowledge—and it's difficult to get those answers when the experiments involve radioactive material. Scientists at Argonne National Laboratory have one answer: Shrink the whole experiment down—to microliters.
Jerome P. Nilmeier, a biophysicist working in computational biology, is willing to bet his new research will provide a breakthrough in the use of the Monte Carlo probability code in biological simulations.
New life has been pumped into the study and modeling of hydropower storage plants, thanks to a new $1.9 million Department of Energy grant awarded to a project led by Argonne National Laboratory.
As the situation at the Fukushima Daiichi reactors unfolded in Japan, several employees at Argonne National Laboratory were lacing up their boots. Part of the Radiological Assistance Program (RAP) team, region five, their normal operating ground covers 10 Midwestern states—but this time their expertise was needed abroad.
The Dow Chemical Company and Argonne National Laboratory announced the signing of a Memorandum of Understanding for a multi-year research collaboration to jointly develop the next generation of materials for advanced battery technologies.
The United States Department of Energy (DOE) announced a $3 million grant to Argonne National Laboratory to further research in developing better, cheaper, and lighter magnets.
For years, scientists have dealt with the problem of trying to increase the efficiency and drive down the cost of solar cells. Now researchers have hit upon a new idea—trying to give the light collected by solar cells a bit of "amnesia." At Argonne National Laboratory, researchers have investigated the use of fluorescent plastics called luminescent solar concentrators (LSCs) that can be used to lower the cost of electricity from solar cells.
Cataloging underground waterways, some of which extend for thousands of miles, has always been difficult—but scientists at the U.S. Department of Energy's Argonne National Laboratory, with colleagues from the University of Illinois at Chicago and the International Atomic Energy Agency, are mapping them with some unusual equipment: lasers and a rare isotope.
Argonne National Laboratory is working with Florida-based Advanced Magnet Lab on a U.S. Department of Energy-sponsored project to develop the first fully superconducting direct-drive generator for large wind turbines, with the goal of significantly reducing the cost of wind energy.
Controlling the behavior of nanoparticles can be just as difficult trying to wrangle a group of teenagers. However, a new study involving Argonne National Laboratory has given scientists insight into how tweaking a nanoparticle’s attractive electronic qualities can lead to the creation of ordered uniform "supraparticles."
Scientists at Argonne National Laboratory have patented a new, extremely stable, 4-V redox shuttle molecule that provides overcharge protection for lithium-ion (Li-ion) batteries containing lithium-iron-phosphate-based cathodes across hundreds of charging cycles.