New 3D chips could make electronics faster and more energy-efficient
The low-cost, scalable technology can seamlessly integrate high-speed gallium nitride transistors onto a standard silicon chip.
The low-cost, scalable technology can seamlessly integrate high-speed gallium nitride transistors onto a standard silicon chip.
Plasma Science and Fusion Center researchers created a superconducting circuit that could one day replace semiconductor components in quantum and high-performance computing systems.
Longtime MIT electrical engineer receives SPIE Frits Zernike Award for Microlithography in recognition of outstanding accomplishments in microlithographic technology.
Protein sensor developed by alumna-founded Advanced Silicon Group can be used for research and quality control in biomanufacturing.
A new method can physically restore original paintings using digitally constructed films, which can be removed if desired.
In the inaugural STUDIO.nano Resonance Lecture, the Brown University assistant professor traced how artists in the 1960s delved into early computer science, cybernetics, and AI.
These devices could pack three times as much energy per pound as today’s best EV batteries, offering a lightweight option for powering trucks, planes, or ships.
The “one-of-a-kind” phenomenon was observed in ordinary graphite.
Today’s carbon capture systems suffer a tradeoff between efficient capture and release, but a new approach developed at MIT can boost overall efficiency.
A new method could enable stretchable ceramics, glass, and metals, for tear-proof textiles or stretchy semiconductors.
Professor Craig Carter’s precision design for a student-led project now on the moon encodes messages from around the world on a silicon wafer.
Connected by the MIT Human Insight Collaborative, Lecturer Mi-Eun Kim and Research Scientist Praneeth Namburi want to develop an understanding of musical expression and skill development.
Inaugural cohort of Tecnológico de Monterrey undergraduates participate in immersive practicum at MIT featuring desktop fiber-extrusion devices, or FrEDs.
MIT engineers developed a way to grow artificial tissues that look and act like their natural counterparts.