Computer model could enable bridges and buildings that use less material
MIT researchers developed an approach for generating more buildable structures, bridging the gap between optimized design and real-world construction.
MIT researchers developed an approach for generating more buildable structures, bridging the gap between optimized design and real-world construction.
MIT researchers’ approach captures subtle atomic patterns, improving predictions of material properties.
Introducing weaker bonds into polystyrene and rubber helps these materials dissipate energy, making them more resistant to destructive forces.
Vinny, an unofficial member of the Strano Lab at MIT, dressed up to celebrate Commencement alongside his human, Michelle Quien PhD ’26.
The low-temperature process could unlock cleaner lithium from America’s abundant hard rock while minimizing waste.
MIT senior Nik Sandu bridges scientific research with a strong commitment to teaching and community.
Ferrium C61 was designed with the aid of computers in a field pioneered at the Institute.
The MIT Marble Center for Cancer Nanomedicine looks back at 10 years of turning big ideas about nanotechnology into transformative advances for cancer patients.
The discovery of dioxaborirane could expand the chemistry of boron-based reagents, providing new tools for oxidation reactions in synthesis and materials science.
A new method for precisely moving columns of individual atoms within a material could give rise to exotic quantum properties.
Camille Cunin PhD ’26 is transforming rigid circuitry into stretchable, signal-amplifying devices built for real-world biomedical use.
Relaxor ferroelectrics have been used in electronics and sensors for decades, but the source of their unique properties was a mystery until now.
In her new book, “Birds Up Close,” MIT materials engineer Lorna Gibson explores feathers, bones, bills, eggs, and flight, and the mechanics behind birds’ extraordinary abilities.
MIT researchers’ new fabrication technique can produce soft, microscopic structures with magnetically activated moving parts.
New MIT work advances the growing field of ionotronics, in which data are transferred through ions, potentially providing a bridge between electronics and biological tissue.