Find us On Facebook Twitter
News
news and events Events Energy Lectures Sustainability 2011 Sustainability 2010 Sustainability 2009 White Symposium Whiting Turner Lectures Current News News Archives Search News Press Coverage Press Releases Research Newsroom RSS feed Events Calendar events events

News Story

Current Headlines

Alumna Florence Tan of NASA to Deliver Commencement Speech May 20

36 Clark School Students Accepted into NIST Summer Research Program

Eta Kappa Nu Wins 2011-2012 Outstanding Chapter Award

UMD's Gamera Team Receives Support from Maryland Space Business Roundtable

Clark School Student Wins "Code for Community Challenge"

Goldsman and Peckerar Win Inaugural University System of Maryland Entrepreneurship Award

Clark School Freshmen Compete in Hovercraft Competition

Marcus Selected as Poole and Kent Senior Faculty Teaching Award Recipient

X-51A Waverider Achieves Hypersonic Breakthrough

Pack Receives "Champion of Change" Award from White House

News Resources

Return to Newsroom

Search Clark School News

Research Newsroom

Press Releases

Archived News

Magazines and Publications

Press Coverage

Clark School RSS Feed

Events Resources

Clark School Events

Events Calendar

Bookmark and Share

All-In-One: $300K for Development of Interface-Free Battery

Clark School associate professor Chunsheng Wang (Department of Chemical and Biomolecular Engineering and University of Maryland Energy Research Center) has spent the past several years focused on building the next generation of smaller and more powerful lithium-ion batteries, developing new electroanalytical techniques, high surface area electrodes built on a virus, and a fracture-resistant silicon anode. Now, he's rethinking the battery's fundamental structure. Backed by a three-year, $300,000 single-PI grant from the National Science Foundation's Division of Chemical, Bioengineering, Environmental, and Transport Systems, Wang is set to pursue the creation of all-solid state, interface-free lithium-ion batteries.

Current solid-state lithium-ion batteries use three different materials for their anodes, cathodes, and electrolytes, creating resistance at the interfaces between the electrolytes and electrodes. This resistance is a significant cause of low power density, lower energy output, and reduced battery lifecycles—factors that not only prevent lithium-ion batteries from becoming feasible for use in high power electronic devices, but also keep them larger in size. Wang is working on the fabrication of a "single continuous phase" material that would encompass the anode, electrolyte, and cathode. Free of the traditional material interfaces, the new battery would have more power, operate more efficiently and safely in high temperatures, and could be reduced to nanoscale dimensions to power microelectromechanical systems.

The project will explore the effects of interface properties on existing batteries, study the formation mechanisms of interface-free batteries, and discover the performance, structure and composition of materials that could be used in the fabrication of high-temperature, interface-free solid-state lithium-ion batteries.

Wang believes that if the work is successful, the new batteries will have a profound impact on the automotive, electronics, and renewable energy industries.

For more information, visit the NSF web site »

Related Articles:
New Nanocomposite Anodes Speed Battery Charging
A Longer Life for Lithium Ion Batteries
"Team Thirsty Turtles" Wins Spot in National Chem-E-Car Competition
NSF Grant for Battery Research

September 5, 2012


Prev   Next