Through an interdisciplinary collaboration between MIT and the Museum of Fine Arts, Boston, researchers are creating playable physical and synthesized replicas.

The advanced manufacturing group becomes a member and will contribute equipment to MIT.nano.

MIT researchers uncovered the physics behind bubble-removing membranes that could improve bioreactors, chemical production, and more.

MIT researchers uncovered the physics behind bubble-removing membranes that could improve bioreactors, chemical production, and more.

The X-ray diffraction and imaging facility at MIT.nano adds a new tool to support research in a wide variety of disciplines.

The X-ray diffraction and imaging facility at MIT.nano adds a new tool to support research in a wide variety of disciplines.

In STS.059 (The Bioeconomy and Society), students explore the social and political factors at work in the biology, biotech, and biological engineering sectors.

Overcoming challenges of 3D printing with multiple functional materials, MIT researchers fabricated an electric linear motor in hours.

Seven faculty members, along with 12 additional alumni, are honored for significant contributions to engineering research, practice, and education.

Associate Professor Rafael Gómez-Bombarelli has spent his career applying AI to improve scientific discovery. Now he believes we are at an inflection point.

The flexible material could enable on-demand heat dissipation for electronics, fabrics, and buildings.

The flexible material could enable on-demand heat dissipation for electronics, fabrics, and buildings.

Professor of the practice Carlo Ratti designed this year’s Olympic torch with the ethos and principles he brings to his work at MIT.

New framework supports design and fabrication of compliant materials such as printable textiles and functional foams, letting users predict deformation and material failure.

For the first time, the new scope allowed physicists to observe terahertz “jiggles” in a superconducting fluid.

For the first time, the new scope allowed physicists to observe terahertz “jiggles” in a superconducting fluid.

MIT researchers’ DiffSyn model offers recipes for synthesizing new materials, enabling faster experimentation and a shorter journey from hypothesis to use.

The MIT lecturer and artist-in-residence transformed hundreds of inscribed and hammered steel plates into “Amulet,” a soaring public artwork at City Hall Plaza.

By leveraging excess heat instead of electricity, microscopic silicon structures could enable more energy-efficient thermal sensing and signal processing.

By leveraging excess heat instead of electricity, microscopic silicon structures could enable more energy-efficient thermal sensing and signal processing.

MIT physicist shares 400,000-euro award for influential work on “magic-angle” graphene.

New technique could improve the scalability of trapped-ion quantum computers, an essential step toward making them practically useful.

The program recognizes outstanding mentorship of graduate students.

MIT engineers designed capsules with biodegradable radio frequency antennas that can reveal when the pill has been swallowed.

The inaugural MIT Human Insight Collaborative (MITHIC) Annual Event showcased the breadth of projects supported in the first year of the presidential initiative.

Nanoparticles coated with molecular sensors could be used to develop at-home tests for many types of cancer.

At MIT, metallurgist Diran Apelian ScD ’73 urges engineers and researchers to rethink design, recycling, and the life cycle of modern materials.

The consortium convenes industry, academia, and policy leaders to navigate competing demands and reimagine materials supply.

MIT researchers found a way to predict how efficiently materials can transport protons in clean energy devices and other advanced technologies.

By stacking multiple active components based on new materials on the back end of a computer chip, this new approach reduces the amount of energy wasted during computation.

By stacking multiple active components based on new materials on the back end of a computer chip, this new approach reduces the amount of energy wasted during computation.

In the 2025 Dresselhaus Lecture, the materials scientist describes her work 3D printing soft materials ranging from robots to human tissues.

In the 2025 Dresselhaus Lecture, the materials scientist describes her work 3D printing soft materials ranging from robots to human tissues.

The project was designed and built with novel “bio-composite” materials developed by the student team.

Placing first in the MADMEC innovation contest, the MITten team aims to curb costly power outages during winter storms.

Faculty members and researchers were honored in recognition of their scholarship, service, and overall excellence.

Four MIT alumni say their startup, Amogy, has the technology to help decarbonize maritime shipping, power generation, manufacturing, and more.

Industry leaders agree collaboration is key to advancing critical technologies.

The team adapted the medical technique to study slag waste that was a byproduct of ancient copper smelting.

The system can be paired with any atmospheric water harvesting material to shake out drinking water in minutes instead of hours.

MIT.nano cleanroom complex named after Robert Noyce PhD ’53 at the 2025 Nano Summit.

MIT.nano cleanroom complex named after Robert Noyce PhD ’53 at the 2025 Nano Summit.

Quick thinking and good spirit marked the Department of Materials Science and Engineering’s first-ever community run.

Jacqueline Prawira’s innovation, featured on CBS’s “The Visioneers,” tackles one of the world’s most pressing environmental challenges.

Because it’s nearly impermeable to gases, the polymer coating developed by MIT engineers could be used to protect solar panels, machinery, infrastructure, and more.

Because it’s nearly impermeable to gases, the polymer coating developed by MIT engineers could be used to protect solar panels, machinery, infrastructure, and more.

The findings could open a route to new forms of higher-temperature superconductors.

The findings could open a route to new forms of higher-temperature superconductors.

MIT researchers created microscopic wireless electronic devices that travel through blood and implant in target brain regions, where they provide electrical stimulation.

MIT researchers created microscopic wireless electronic devices that travel through blood and implant in target brain regions, where they provide electrical stimulation.