Technology News
Research points to new electrodes improving the efficiency of Lithium-air batteries
April 06, 2010 | Paul Buckley | 222900783
Batteries with up to three times the energy density of any battery that currently exists may result from work being carried out by a team of researchers from the Massachusetts Institute of Technology (MIT).
Yang Shao-Horn, an MIT associate professor of mechanical engineering and materials science and engineering, says that many groups have been pursuing work on lithium-air batteries, a technology that has potential for achieving great gains in energy density. But there has been a lack of understanding of what kinds of electrode materials could promote the electrochemical reactions that take place in these batteries.
Yang Shao-Horn, an MIT associate professor of mechanical engineering and materials science and engineering, along with some of her students and visiting professor Hubert Gasteiger, reported on a study showing that electrodes with gold or platinum as a catalyst show a much higher level of activity and thus a higher efficiency than simple carbon electrodes in these batteries
The research team has developed a method for analyzing the activity of different catalysts in the batteries, and will be able build on their work to investigate a variety of possible alloys or other materials and examine their safety potential.
The MIT research is described in a paper published in last week’s Electrochemical and Solid-State Letters journal.
Related link: www.mit.edu
Yang Shao-Horn, an MIT associate professor of mechanical engineering and materials science and engineering, along with some of her students and visiting professor Hubert Gasteiger, reported on a study showing that electrodes with gold or platinum as a catalyst show a much higher level of activity and thus a higher efficiency than simple carbon electrodes in these batteries
The research team has developed a method for analyzing the activity of different catalysts in the batteries, and will be able build on their work to investigate a variety of possible alloys or other materials and examine their safety potential.
The MIT research is described in a paper published in last week’s Electrochemical and Solid-State Letters journal.
Related link: www.mit.edu
Please login to post your comment - click here
Related News
- 6.5 million euros European project AMBASSADOR aims for eco-friendly districts
- Low-power wireless projected to make waves in remote controls according to IMS Research
- Lithium-ion batteries withstand 10.000 charging cycles
- USB 2.0 hub controller chip enables rapid charging via a single USB connector
- 36-V digital potentiometers support wide signal swings and high power-supply voltages
- World's lowest power Bluetooth smart chip is unveiled
- Floating surge stopper provides unlimited overvoltage protection
- Ultra-low-power SoC supports world's smallest Bluetooth location stickers
- sureCore receives £250 000 SMART Award to prototype low power SRAM technology
- Highest power GaN in Plastic transistors target radar and communications systems
MOST POPULAR NEWS
- Volvo evaluates flywheel hybrid drive - fuel savings of up to 25%
- PV storage market is set to grow to USD19bn by 2017
- Ultra-low-power SoC supports world's smallest Bluetooth location stickers
- Power-One enters into patent license agreement with Microchip
- Quad-MOSFET solution boosts efficiency and eliminates heat sinking in active bridge applications
- Imec and Renesas collaborate on ultra-low power short range radios
- Solar industry capital spending hits seven-year low in 2013 but upturn is on the cards
- Market for GaN and SiC power semiconductors set to rise by factor of 18 in next decade
- Advanced microcontroller combines floating point and low leakage technology to achieve longest battery lifetime in portable applications
- World's lowest power Bluetooth smart chip is unveiled
Interview
Technical papers
- Dangers of Aftermarket Counterfeit Battery Packs
- High Voltage Surge Stoppers Ensure Reliable Operation During Power Surges
- Motor-Drive Design made Simple
- Adaptive Cell Converter Topology Enables Constant Efficiency in PFC Applications
- Micropower Isolated Flyback Converter with Input Voltage Range from 6V to 100V
- Derating of Schottky Diodes
- Heatsink Optimization
- High Performance ZVS Buck Regulator Removes Barriers To Increased Power Throughput
- Waste heat replaces batteries
- Stepper Motor Control IC
Poll
STMicroelectronics
Battery
Linear Technology
Intersil
Smart Grid
Vishay Intertechnology
Analog
Fairchild Semiconductor
IMS Research
Energy Harvesting
Power Management
National Semiconductor
Maxim Integrated Products
Power Supply
Microcontroller
Power Supplies
Batteries
MOSFETs
Power
Diodes
Solar
Analog Devices
Photovoltaic
MOSFET
GaN
UPS
International Rectifier
Microcontrollers
NXP Semiconductors
Texas Instruments
All material on this site Copyright © 2009 - 2010 European Business Press SA. All rights reserved.
This site contains articles under license from EETimes Group , a division of United Business Media LLC.
This site contains articles under license from EETimes Group , a division of United Business Media LLC.


