And now they have the data to prove it. The middle of Lake Michigan is a vast, untapped reservoir of wind energy. The next step will be to find out if it can be harvested economically without harming the environment.
University of Tennessee researchers have successfully developed a key technology in developing an experimental reactor that can demonstrate the feasibility of fusion energy for the power grid. Nuclear fusion promises to supply more energy than the nuclear fission used today but with far fewer risks.
An unappreciated aspect of chemical reactions on the surface of metal oxides could be key in developing more efficient energy systems, including more productive solar cells or hydrogen fuel cells efficient enough for automobiles.
A new solid oxide fuel cell system developed by PNNL can achieve a record of up to 57 percent efficiency and is designed to be scaled up to generate electricity for individual homes or neighborhoods.
Writing this week in the journal Angewandte Chemie, a Wisconsin group describes a new high-throughput method to identify electrocatalysts for water oxidation.
Sandia modeling study contradicts a long-held belief of geologists that pore sizes and chemical compositions are uniform throughout a given strata, which are horizontal slices of sedimentary rock. By understanding the variety of pore sizes and spatial patterns in strata, geologists can help achieve more production from underground oil reservoirs and water aquifers. Better understanding also means more efficient use of potential underground carbon storage sites, and better evaluations of the possible movement of radionuclides in nuclear waste depositories to determine how well the waste will be isolated.
Salk and Iowa State researchers identify three proteins involved in plant fatty acids, the key components of seed oils.
A study by the Wildlife Conservation Society documents that intense development of the two largest natural gas fields in the continental U.S. are driving away some wildlife from their traditional wintering grounds.
Scientists found that incorporating graphene increased the cell's conductivity, bringing 52.4 percent more current into the circuit.
Researchers from New York University and the Max Planck Institute in Stuttgart reveal how protons move in phosphoric acid in a Nature Chemistry study that sheds new light on the workings of a promising fuel cell electrolyte.
Harnessing the energy of sunlight can be as simple as tuning the optical and electronic properties of metal oxides at the atomic level to make an artificial crystal or super-lattice 'sandwich,' says a Binghamton University researcher in a new study published in the journal Physical Review B.
Energy could very well become the tipping point that sours or improves relations between the Chinese and the United States, according to recent research in the Asian Politics and Policy journal this month. The study, which examines strategies employed by the Chinese to procure energy from Saudi Arabia, Iran and Iraq, signals that while the United States should not fear China's actions, it's best to keep a close watch on what the Chinese are doing.
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.
An innovative X-ray technique has given North Carolina State University researchers and their collaborators new insight into how organic polymers can be used in printable electronics such as transistors and solar cells.
Research to green alternative energy technologies has led to a dye-sensitized solar cell that uses a bacteria and dye to generate energy. It is also friendlier to the environment and living organisms.
Georgia Tech researchers are helping assess the economic impact of nanotechnology on green and sustainable growth. Their work will help evaluate the multi-billion-dollar public and private investment being made each year in research and development on nanotechnology.
Butterfly wings may rank among the most delicate structures in nature, but they have given researchers powerful inspiration for new technology that doubles production of hydrogen gas -- a green fuel of the future -- from water and sunlight. The researchers presented their findings here today at the American Chemical Society's (ACS') 243rd National Meeting & Exposition.
The long-sought technology for enabling the fabled "hydrogen economy" -- an era based on hydrogen fuel that replaces gasoline, diesel and other fossil fuels, easing concerns about foreign oil and air pollution -- has been available for decades and could begin commercial production of hydrogen in this decade, a scientist reported here today at the 243rd National Meeting & Exposition of the American Chemical Society (ACS), the world's largest scientific society.
Nearly two-thirds of the oil we use comes from wells drilled using polycrystalline diamond compact (PDC) bits, originally developed nearly 30 years ago to lower the cost of geothermal drilling. Sandia and the U.S. Navy recently brought the technology fullcircle, showing how geothermal drillers might use the original PDC technology, incorporating decades of subsequent improvements by the oil and gas industry.
Researchers at Clarkson University have implanted a biofuel cell in a living snail. This is the first incidence of an implanted biofuel cell continuously operating in a snail and producing electrical power over a long period of time using the snail's physiologically produced glucose as a fuel.
The Minerals, Metals, and Materials Society (TMS) Releases Findings of Two-Year Study that Identifies Potentially Game-Changing Advances in Energy Materials
Specific advances in materials and manufacturing can deliver significant energy, environmental, and economic impacts to U.S. businesses in as soon as two to ten years, according to a new study coordinated by The Minerals, Metals, and Materials Society (TMS) on behalf of the U.S Department of Energy (DOE) Advanced Manufacturing Office.
Almost 80 percent of current farmland in the U.S. would have to be devoted to raising corn for ethanol production in order to meet current biofuel production targets with existing technology, a new study has found. An alternative, according to a study in ACS' journal Environmental Science & Technology, would be to convert 60 percent of existing rangeland to biofuels.
A new study says genetic mutations in plants could make it easier to break down plant cellulose to the sugars that are fermented into biofuels. The researchers' findings are published in the Proceedings of the National Academy of Sciences.
A technology developed at ORNL could streamline and strengthen the process for siting power plants while potentially enhancing the nation's energy security.
A team of chemical engineers at UMass Amherst has discovered a small molecule that behaves like cellulose when converted to biofuel. Studying this 'mini-cellulose' molecule reveals the chemical reactions that take place in wood and prairie grasses during high-temperature conversion to biofuel.