Leading quantum at an inflection point
The MIT Quantum Initiative is taking shape, leveraging quantum breakthroughs to drive the future of scientific and technological progress.
The MIT Quantum Initiative is taking shape, leveraging quantum breakthroughs to drive the future of scientific and technological progress.
In a new study, MIT researchers evaluated quantum materials’ potential for scalable commercial success — and identified promising candidates.
MIT physicist seeks to use award to study magnetoelectric multiferroics that could lead to energy-efficient storage devices.
Jiaqi Cai and Zhengguang Lu independently discovered that electrons can become fractions of themselves.
For physicist Mostafa Fawzy, MIT Open Learning’s OpenCourseWare was a steadfast companion through countless study sessions.
With SCIGEN, researchers can steer AI models to create materials with exotic properties for applications like quantum computing.
Nanophotonic devices developed at MIT are compact, efficient, reprogrammable, adaptive, and able to dynamically respond to external inputs.
MIT physicists confirm that, like Superman, light has two identities that are impossible to see at once.
An oft-ignored effect can be used to probe an important property of semiconductors, a new study finds.
Longtime MIT solid-state physicist brought theoretical insights to an experiment-driven discipline — and later, to film.
The “one-of-a-kind” phenomenon was observed in ordinary graphite.
A technique developed at MIT enables a new class of experiments that could finally let physicists test whether gravity needs to be described by quantum theory.
The 17-year-old student from Spain uses MIT resources to deepen her understanding of math and physics.
On the physics faculty for nearly 40 years and a member of the Center for Theoretical Physics, he focused on the interactions of hadrons and developed an R-matrix formulation of scattering theory.
Rhombohedral graphene reveals new exotic interacting electron states.