Imagine powering your cell phone by simply walking around your office or rubbing it with the palm of your hand. Rather than plugging it into the wall, you become the power source. Researchers at the 247th National Meeting & Exposition of the American Chemical Society, the world's largest scientific society, presented these commercial possibilities and a unique vision for green energy. To see a video of the team's work, visit http://www.youtube.com/watch?v=AVhJ4G-7na4.
Scientists from The Scripps Research Institute have devised a new, more efficient method with the potential to convert the major components found in natural gas into useable fuels and chemicals--opening the door to cheaper, more abundant energy and materials with much lower emissions.
Shale, the source of the United States' current natural gas boom, could help solve another energy problem: what to do with radioactive waste from nuclear power plants. The unique properties of the sedimentary rock and related clay-rich rocks make it ideal for storing the potentially dangerous spent fuel for millennia, according to a geologist studying possible storage sites. He presented his research today at the 247th National Meeting & Exposition of the American Chemical Society.
Brain sensors and electronic tags that dissolve. Boosting the potential of renewable energy sources. These are examples of the latest research from two pioneering scientists selected as this year's Kavli lecturers at the 247th National Meeting & Exposition of the American Chemical Society, the world's largest scientific society.
Animal fat from chicken, pork, beef and even alligators could give an economical, ecofriendly boost to the biofuel industry, according to researchers who reported a new method for biofuel production here today. The report, following up on their earlier study on the potential use of gator fat as a source of biodiesel fuel, was part of the 247th National Meeting of the American Chemical Society, the world's largest scientific society.
In a study published last week in the journal Science, Choi and postdoctoral researcher Tae Woo Kim combined cheap, oxide-based materials to split water into hydrogen and oxygen gases using solar energy with a solar-to-hydrogen conversion efficiency of 1.7 percent, the highest reported for any oxide-based photoelectrode system.
Using a new microscopy method, researchers can image and measure electrochemical processes in batteries in real time and at nanoscale resolution.
In a recent early online edition of Nature Chemistry, ASU scientists, along with colleagues at Argonne National Laboratory, report advances toward perfecting a functional artificial leaf.
Researchers have developed a new type of low-temperature fuel cell that directly converts biomass to electricity with assistance from a catalyst activated by solar or thermal energy.
OU researcher creates virtual sensors to detect unreliable heating, vent and air conditioning systems in buildings. The method is a low cost, reliable process to reduce a company's utilities bills and carbon footprint.
New insights into one of the molecular mechanisms behind light harvesting, which enables photosynthetic organisms to thrive, even as weather conditions change from full sunlight to deep cloud cover, will be presented at the 58th Annual Biophysical Society Meeting. Researchers will describe how probing these natural systems is helping us understand the basic mechanisms of light harvesting -- work that could help improve the design and efficiency of devices like solar cells in the future.
Researchers at the U.S. Department of Energy's Brookhaven National Laboratory have combined atoms with multiple orbitals and precisely pinned down their electron distributions. Using advanced electron diffraction techniques, the scientists discovered that orbital fluctuations in iron-based compounds induce strongly coupled polarizations that can enhance electron pairing--the essential mechanism behind superconductivity.
Designing more efficient organic solar cells should be easier with an explanation of how charge separation works.
A team of researchers at the University of Delaware has developed a highly selective catalyst capable of electrochemically converting carbon dioxide -- a greenhouse gas -- to carbon monoxide with 92 percent efficiency. The carbon monoxide then can be used to develop useful chemicals. The researchers recently reported their findings in Nature Communications.
PNNL scientists at the Joint Global Change Research Institute, a partnership with the University of Maryland in College Park, Md., have created a unique model that projects how much energy can be saved with changes to China's building energy codes.
A Virginia Tech research team has developed a battery that runs on sugar and has an unmatched energy density, a development that could replace conventional batteries with ones that are cheaper, refillable, and biodegradable.
"Supercapacitors" take the energy-storing abilities of capacitors (which store electrical charge that can be quickly dumped to power devices) a step further, storing a far greater charge in a much smaller package. In AIP Advances, researchers describe the possibility of fabricating a new class of high heat-tolerant electronics that would employ supercapacitors made from a material called calcium-copper-titanate, or CCTO, which the researchers have identified for the first time as a practical energy-storage material.
Using a plant-derived chemical, University of Wisconsin-Madison researchers have developed a process for creating a concentrated stream of sugars that's ripe with possibility for biofuels.
Researchers simulating how certain bacteria run electrical current through tiny molecular wires have discovered a secret Nature uses for electron travel. This is the first time scientists have seen this evolutionary design principle for electron transport,
Electric cars could travel farther on a single charge and more renewable energy could be saved for a rainy day if lithium-sulfur batteries can last longer. PNNL has developed a novel anode that could quadruple the lifespan of these promising batteries.
Lithium-ion batteries, such as those used in electric vehicles, are in high demand, with a global market value expected to reach $33.1 billion in 2019. But their high price and short life need to be addressed before they can be used in more consumer, energy and medical products. Venkat Subramanian, PhD, associate professor of energy, environmental & chemical engineering, and his team are working to solve this problem buy developing optimal charging profiles for the batteries.
Introduction of relatively weak magnetic fields into Sandia's Z machine unexpectedly lessened plasma instabilities that have sunk previous fusion efforts.
1) The road to efficiency. 2) Zero Energy Ready Homes. 3) Cross-disciplinary research is yielding new insight into the carbon cycle, contaminated soils and soil fertility.
Scientists have developed a new set of molecular tools for controlling the production of (poly)phenols, plant compounds important for flavors, human health, and biofuels.
Engineers have created a chemical system that continually produces useful crude oil minutes after they pour in raw algae material - a green paste with the consistency of pea soup. The technology eliminates the need to dry the algae and recycles ingredients such as phosphorus, cutting costs.