Surprising electronic disorder in a copper oxide-based ceramic
MIT researchers use resonant X-ray scattering measurements to reveal unexpected “Wigner glass” in desirable superconducting material.
MIT researchers use resonant X-ray scattering measurements to reveal unexpected “Wigner glass” in desirable superconducting material.
Device made from flexible, inexpensive materials could power large-area electronics, wearables, medical devices, and more.
Theoretical analysis distinguishes observed “holes” from the huge list of hypothetically possible ones.
Undergraduates from across the country learn the benefits of continuing their education in chemistry, chemical engineering, and materials science.
Students in the MIT Energy Initiative Undergraduate Research Opportunities Program build professional skills.
MIT researchers show how to make and drive nanoscale magnetic quasi-particles known as skyrmions for spintronic memory devices.
First measurement of its kind could provide stepping stone to practical quantum computing.
"Magic-angle" graphene named 2018 Breakthrough of the Year; first ionic plane and earliest evidence of hydrogen gas named to top 10 breakthroughs.
A research assistant and avid runner, PhD candidate Thomas Petersen discusses his experience both researching and competing on pavement.
National Academies study recommends a pilot fusion energy program that aligns with MIT's fusion approach and SPARC project.
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.
Inexpensive 3-D-printed microfluidics device could be used to personalize cancer treatment.
Method can be used to quickly characterize any soft, rapidly changing substance, such as clotting blood or drying cement.