New type of electrolyte could enhance supercapacitor performance
Novel class of “ionic liquids” may store more energy than conventional electrolytes — with less risk of catching fire.
Novel class of “ionic liquids” may store more energy than conventional electrolytes — with less risk of catching fire.
“Hybrid” cathodes could provide more power for a given weight and volume.
Faculty in the Department of Mechanical Engineering are developing technologies that store, capture, convert, and minimize greenhouse gas emissions.
A new concept for thermal energy storage involves a material that absorbs heat as it melts and releases it as it resolidifies — but only when triggered by light.
Faculty researchers share insights into new capabilities at the annual Industrial Liaison Program Research and Development Conference.
Design for system that provides solar- or wind-generated power on demand should be cheaper than other leading options.
New design could greatly extend the shelf life of single-use metal-air batteries for electric vehicles, off-grid storage, and other applications.
Led by “Queen of Batteries” Christina Lampe-Onnerud, Cadenza Innovation is licensing its lithium ion battery cell architecture to manufacturers around the world.
Design principles could point to better electrolytes for next-generation lithium batteries.
Assistant professor in EECS is developing materials with novel structures and useful applications, including renewable energy and information storage.
Soon-to-be assistant professor of applied economics focuses on development and deployment solutions that can help the world move to a low-carbon future.
New metal-mesh membrane could solve longstanding problems and lead to inexpensive power storage.
New model measures characteristics of carbon nanotube structures for energy storage and water desalination applications.
Assistant professor is honored for her work on energy storage systems and safer, solid-state lithium electrolyte batteries.
MIT researchers create material for a chemical heat “battery” that could release its energy on demand.