“Yolks” and “shells” improve rechargeable batteries
Aluminum could give a big boost to capacity and power of lithium-ion batteries.
Aluminum could give a big boost to capacity and power of lithium-ion batteries.
Biochemical sensor implanted at initial biopsy could allow doctors to better monitor and adjust cancer treatments.
New research shows non-wetting surfaces promote chemical reaction rates.
Partnership of government, industry, and academia will pursue integration of optical devices with electronics.
Summer interns are learning research skills while helping to make progress in materials, drug delivery, and energy in MIT labs.
Assistant Professor Elsa Olivetti combines cost and environmental data to identify high-impact areas for reducing pollution and greenhouse gases.
Professor W. Craig Carter leads a collaborative effort to build a materials science curriculum online with integrated programming and active student engagement.
MIT spinout signs deal to commercialize microchips that release therapeutics inside the body.
Reinventing how these batteries are made also improves their performance and recyclability.
Technique enables production of pure, uniform coatings of metals or polymers, even on contoured surfaces.
Recent PhD recipient Rachel Zucker models phenomena collectively known as "dewetting" in microscale to nanoscale thin films.
Modeling mechanical stress in solid-state lithium batteries yields insights into battery microstructure for MIT postdoc Giovanna Bucci.
AFFOA event to spark conversations on breakthroughs in fiber materials and textile manufacturing processes.