Quantum simulator could help uncover materials for high-performance electronics
By emulating a magnetic field on a superconducting quantum computer, researchers can probe complex properties of materials.
By emulating a magnetic field on a superconducting quantum computer, researchers can probe complex properties of materials.
Associate professor of physics Riccardo Comin never stops seeking uncharted territory.
By fabricating semiconductor-free logic gates, which can be used to perform computation, researchers hope to streamline the manufacture of electronics.
The devices could be a useful tool for biomedical research, and possible clinical use in the future.
A new study of bubbles on electrode surfaces could help improve the efficiency of electrochemical processes that produce fuels, chemicals, and materials.
MIT researchers find that the first dose primes the immune system, helping it to generate a strong response to the second dose, a week later.
A summer class teaches PhD students and early-career archaeologists ceramic petrography, revealing the origins and production methods of past societies.
By analyzing X-ray crystallography data, the model could help researchers develop new materials for many applications, including batteries and magnets.
Physicists capture images of ultracold atoms flowing freely, without friction, in an exotic “edge state.”
An MIT-led group shows how to achieve precise control over the properties of Weyl semimetals and other exotic substances.
Sublime Systems, founded by Professor Yet-Ming Chiang and former postdoc Leah Ellis, has developed a sustainable way to make one of the world’s most common materials.
Electronic waste is a rapidly growing problem, but this degradable material could allow the recycling of parts from many single-use and wearable devices.
The company that brought you no-stick toothpaste is moving into the medical space, with a lubricant for ostomy pouches and other products that could improve millions of lives.
Ultrathin material whose properties “already meet or exceed industry standards” enables superfast switching, extreme durability.
Analysis and materials identified by MIT engineers could lead to more energy-efficient fuel cells, electrolyzers, batteries, or computing devices.