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.
The work introduces a new platform for studying quantum materials.
With their recently-developed neural network architecture, MIT researchers can wring more information out of electronic structure calculations.
An MIT-led group shows how to achieve precise control over the properties of Weyl semimetals and other exotic substances.
Study shows neutrons can bind to nanoscale atomic clusters known as quantum dots. The finding may provide insights into material properties and quantum effects.
The method lets researchers identify and control larger numbers of atomic-scale defects, to build a bigger system of qubits.
In a study that could help fill some holes in quantum theory, the team recreated a “quantum bomb tester” in a classical droplet test.
MIT researchers develop a protocol to extend the life of quantum coherence.
By fine-tuning the spin density in some materials, researchers may be able to develop new quantum sensors or quantum simulations.
Researchers discover how to control the anomalous Hall effect and Berry curvature to create flexible quantum magnets for use in computers, robotics, and sensors.
Work could lead to heady applications in novel electronics and more.
Over more than 50 years at MIT, he made fundamental contributions to quantum field theory and discovered topological and geometric phenomena.
Recipients Luis Antonio Benítez, Carolina Cuesta-Lazaro, and Fernando Romero López receive support for their scientific research.
A hands-on class teaches undergraduates the fundamentals of quantum mechanics and nanoscale science from inside MIT.nano’s cleanroom.
The second annual student-industry conference was held in-person for the first time.