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.
Penicillin and its descendants once ruled supreme over bacteria. Then the bugs got stronger, and hospitals have reported bacterial infections so virulent that even powerful antibiotics held in reserve for these cases don't work. To create the next line of defense against the most drug-resistant pathogens, scientists at Argonne National Laboratory and Texas A&M University have decoded the structure of a protein that confers drug resistance against our best antibiotics.
After only a few months of work, a small group of researchers at the U.S. Department of Energy's Argonne National Laboratory has successfully scaled up the production of a new molecule that protects advanced lithium-ion batteries from thermal overcharge.
Argonne nanoscientists have invented a better etching technique that combines new tricks with an old technology. The scientists say the technique has the potential to revolutionize how patterns are transferred onto different materials, paving a new approach for the next generation of energy, electronics, and memory technologies.
Argonne National Laboratory and Eurisko Scientific LLC have introduced an Enhanced Renewable Methane Production System for anaerobic digesters that improves methane quality and sequesters carbon dioxide, improving on efficiencies of current technologies.
Engineers at Argonne National Laboratory have developed a new type of composite ceramic film capacitor that addresses the thermal limitations of materials currently used in electric vehicles, allowing far higher operating temperatures and volumetric efficiency.
The Photoacoustic Spectroscopy (PAS) System for Remote Detection of Explosives and Chemicals, from Argonne National Laboratory, remotely detects chemicals and explosives using both PAS and open-field acoustic resonator techniques.
Physicists at the Argonne National Laboratory have coaxed microrobots to do their bidding. The robots, just half a millimeter wide, are composed of microparticles. Confined between two liquids, they assemble themselves into star shapes when an alternating magnetic field is applied.
A multi-institutional team has been awarded government funding to create out of many separate streams of biological information a single, integrated cyber-"knowledgebase" (called Kbase) focused specifically on two fundamentally important forms of life.
Imagine a battery that truly does keep on going and going—and not for just a few years, but close to decades. At Argonne National Laboratory, materials scientist Daniel Abraham works to do just that for lithium-ion batteries.
Plutonium gets taken up by our cells much as iron does, even though there's far less of it to go around. Researchers at Argonne National Laboratory and Northwestern University have identified a new biological pathway by which plutonium finds its way into mammalian cells. The researchers learned that, to get into cells, plutonium acts like a "Trojan horse," duping a special membrane protein that is typically responsible for taking up iron.
Brookhaven National Laboratory researchers are using high-frequency sound waves in conjunction with extremely bright X-rays to get a look at the atomic structures of the complex biological molecules that make our bodies work.
A multidisciplinary team of researchers at Argonne National Laboratory is working to develop advanced energy storage technologies to aid the growth of a nascent U.S. battery manufacturing industry, help transition the U.S. automotive fleet to one dominated by plug-in hybrid and electric passenger vehicles, and enable greater use of renewable energy technologies.
Recent discussions of methods by which biomass—grasses, trees, and other vegetation—could be turned into fuel makes a lot of sense in theory. Plant matter is composed of energy-intensive carbohydrates, but even now scientists still don't have the perfect solution for converting plant sugars into combustible fuels.
The humble alga, hated by boaters and pool owners, may someday help provide us with the raw machinery to power our appliances. A group of scientists at Argonne National Laboratory, led by chemist Lisa Utschig, has linked platinum nanoparticles with algae proteins, commandeering photosynthesis to produce hydrogen instead. The system produces hydrogen at a rate five times greater than the previous record-setting method.