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IBM formally unveiled the fifth annual "Next Five in Five" – a list of innovations that have the potential to change the way people work, live and play over the next five years:
• You'll beam up your friends in 3-D
• Batteries will breathe air to power our devices
• You won’t need to be a scientist to save the planet
• Your commute will be personalized
• Computers will help energize your city
The North Carolina-based utility and Itochu Corp. announced an agreement Tuesday morning to evaluate and test “reuse” applications for electric vehicle batteries.
Duke Energy, which has about 780,000 customers in Indiana and distributes power to 69 of the state's 92 counties, said the testing will occur in the Indianapolis area, further boosting the region’s efforts to capitalize on clean-energy technology.
A Piper Jaffray report estimates the global market for batteries used to store electricity on utility power grids could be $600 billion over 10 years.
Could we one day see a battery-free future for mobile phones, electric cars and other devices?
European researchers believe we can, and have just launched a €3.4 million project to develop a new material that could essentially allow phone housings and car bodies to act as their own power source. The effort, if successful, could enable credit-card-thin phones and electric cars far smaller, lighter and more efficient than those today.
Dip an ordinary piece of paper into ink infused with carbon nanotubes and silver nanowires, and it turns into a battery or supercapacitor. Crumple the piece of paper, and it still works. Stanford researcher Yi Cui sees many uses for this new way of storing electricity.
New EU rules have come into force that require some stores selling batteries to provide in-store recycling bins.
The Department of Energy and IBM are serious about developing lithium air batteries capable of powering a car for 500 miles on a single charge - a five-fold increase over current plug-in batteries that have a range of about 40 to 100 miles, the DOE said.
The agency said 24 million hours of supercomputing time out of a total of 1.6 billion available hours at Argonne and Oak Ridge National Laboratories will be used by IBM and a team of researchers from those labs and Vanderbilt University to design new materials required for a lithium air battery.
The team behind EGG-energy has a statistic they cite often: In Tanzania 80 percent of the population lives within 5 kilometers of a transmission line but only 10 percent has access to electricity. To help solve that “last mile” problem, the team, which hails from MIT and Harvard, decided to create a business model that closes that gap, not by building out electrical distribution lines, but by “using feet, motorbikes and buses,” or a bottom-up grid
"As recently as August, the largest lithium battery recycler in North America — Toxco — snagged a $9.5 million grant from the Department of Energy to build out battery recycling capacity in Ohio and pledged to provide “end of life management” for advanced vehicle batteries “in a safe and environmentally sound manner.” But this weekend multiple explosions and a major fire at the company’s Trail, British Columbia recycling facility can be fairly called bad advertising for that business."
n the rush to build the next generation of hybrid or electric cars, a sobering fact confronts both automakers and governments seeking to lower their reliance on foreign oil: almost half of the world’s lithium, the mineral needed to power the vehicles, is found here in Bolivia — a country that may not be willing to surrender it so easily.
Kawasaki Heavy Industries Ltd. (KHI) will begin manufacturing versions of the Gigacell bipolar NiMH industrial battery—originally targeted for grid applications such as output smoothing for wind and solar—for transportation applications, beginning with systems for rail applications, according to a report in the Nikkei.
A team led by Jaephil Cho at Hanyang University in Korea has now developed a new material for anodes, which could clear a path for a new generation of rechargeable batteries. As reported in the journal Angewandte Chemie, their new material involves three-dimensional, highly porous silicon structures.
In a recent study, a team of researchers has developed micro-sized direct methanol fuel cells (microDMFC) that achieve significantly improved fuel efficiency and maintain a good power density while operating at room temperature. The energy density (measured in watt-hours per liter) of the new fuel cells is 385 Wh/L, which is superior to lithium ions batteries’ value of 270 Wh/L.
The research, led by Dr. Steve Arscott at the Institute of Electronics, Microelectronics and Nanotechnology (IEMN) in France, working in collaboration with SHARP Corporation in Nara, Japan, is published in a recent issue of the Journal of Micromechanics and Microengineering, and a second study has been accepted to the Journal of Power Sources.
Battery technology has historically lagged far behind semiconductor technology. While chips double their capacity every 18 months or so, batteries are lucky to double capacities in a decade.
But now, say materials scientists at the Massachusetts Institute of Technology, bioengineering has broken the bottleneck
Researchers at the University of Bath are helping to develop new rechargeable batteries that could improve hybrid electric cars in the future. Transport is a major energy user and is estimated to be responsible for around 25% of the UK's total carbon emissions.
Now that hybrid passenger cars have scored an enormous marketing success, the struggle has begun to make them competitive with comparable gasoline-powered and diesel vehicles in delivered fuel efficiency and environmental impact.
Much of this work focuses on the huge, heavy, short-lived, and environmentally costly battery packs that store energy the vehicles capture from their internal-combustion engines and recapture from their own momentum.
Over the next three years, the Fraunhofer Institutes in Germany will collaborate with Volkswagen to explore lithium-polymer accumulators as alternatives to the lithium-ion batteries today’s vehicles often use
QuantumSphere, Inc., today announced that it has filed a key patent for technology it has developed that extends the capacity of rechargeable lithium ion batteries up to five times
An advance by researchers at the Research Institute of Chemical Defense, in China, could boost ultracapacitors' ability to store energy.
The proliferation of solar, wind and even tidal electric generation and the rapid emergence of hybrid electric automobiles demands flexible and reliable methods of high-capacity electrical storage. Now a team of Penn State materials scientists is developing ferroelectric polymer-based capacitors that can deliver power more rapidly and are much lighter than conventional batteries.
The energy for tomorrow's miniature electronic devices could come from tiny microbatteries about half the size of a human cell and built with viruses.
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