Inspired by physics, a new generative model PFGM++ outperforms diffusion models in image generation.

Researchers at the Center for Theoretical Physics lead work on testing quantum gravity on a quantum processor.

New results from researchers at MIT reveal an unexpected feature of atomic nuclei when a “magic” number of neutrons is reached.

The findings could redefine the kinds of particles that were abundant in the early universe.

Graduate student Nicholas Kamp describes the MicroBooNE experiment and its implications for our understanding of fundamental particles.

Radioactive molecules are sensitive to subtle nuclear phenomena and might help physicists probe the violation of the most fundamental symmetries of nature.

Shooting beams of ions at proton clouds may help researchers map the inner workings of neutron stars.

Grad student Chiara Salemi and Professor Lindley Winslow use the ABRACADABRA instrument to reveal insights into dark matter.

MIT-led team uses AI and machine learning to explore fundamental forces.

Faculty from the departments of physics, chemical engineering, and mechanical engineering were selected for the 2020 Early Career Research Program.