Department
Materials Science and Engineering
Unusual magnetic behavior observed at a material interface
Findings could lead to a building block for future quantum computers, and a research tool for physics.
Going solid-state could make batteries safer and longer-lasting
New research paves the way for rechargeable batteries with almost indefinite lifetimes, researchers say.
Training ‘small-planet’ engineers
‘Global Principles’ course challenges students at MIT and the University of Tokyo to develop a cross-cultural, systems approach to materials science and engineering.
“Yolks” and “shells” improve rechargeable batteries
Aluminum could give a big boost to capacity and power of lithium-ion batteries.
Real-time data for cancer therapy
Biochemical sensor implanted at initial biopsy could allow doctors to better monitor and adjust cancer treatments.
How to look for a few good catalysts
New research shows non-wetting surfaces promote chemical reaction rates.
Consortium including MIT awarded $110M national grant to promote photonics manufacturing
Partnership of government, industry, and academia will pursue integration of optical devices with electronics.
Putting the pieces together
Summer interns are learning research skills while helping to make progress in materials, drug delivery, and energy in MIT labs.
Faculty highlight: Elsa Olivetti
Assistant Professor Elsa Olivetti combines cost and environmental data to identify high-impact areas for reducing pollution and greenhouse gases.
Materials science master class
Professor W. Craig Carter leads a collaborative effort to build a materials science curriculum online with integrated programming and active student engagement.
Major step for implantable drug-delivery device
MIT spinout signs deal to commercialize microchips that release therapeutics inside the body.
New manufacturing approach slices lithium-ion battery cost in half
Reinventing how these batteries are made also improves their performance and recyclability.
Modeling how thin films break up
Recent PhD recipient Rachel Zucker models phenomena collectively known as "dewetting" in microscale to nanoscale thin films.