Scientists observe a single quantum vibration under ordinary conditions
Studying a common material at room temperature, researchers bring quantum behavior “closer to our daily life.”
Studying a common material at room temperature, researchers bring quantum behavior “closer to our daily life.”
Ultrathin coating could protect 2D materials from corrosion, enabling their use in optics and electronics.
Scientists simulate early galaxy formation in a universe of dark matter that is ultralight, or “fuzzy,” rather than cold or warm.
MIT researchers discover why magnetism in certain materials is different in atomically thin layers and their bulk forms.
Matthew Evans, Joseph Formaggio, Markus Klute, and Anne White are named MIT’s newest APS fellows for their contributions to physics.
Joseph Formaggio explains the discovery that the ghostly particle must be no more than 1 electronvolt, half as massive as previously thought.
New detection tool could be used to make quantum computers robust against unwanted environmental disturbances.
The honor recognizes the "stellar achievement" of the people behind the exoplanet-seeking satellite.
Results support Einstein’s theory and the idea that black holes have no “hair.”
Observation of the predicted non-Abelian Aharonov-Bohm Effect may offer step toward fault-tolerant quantum computers.
With help from next-generation particle accelerators, the approach may nail down the rate of oxygen production in the universe.
MIT researchers have developed a new technique to reveal the uncharted dynamics of electrons in materials.
Prototype machine-learning technology co-developed by MIT scientists speeds processing by up to 175 times over traditional methods.
Tracy Slatyer hunts through astrophysical data for clues to the invisible universe.
MIT graduate student slices microwave pulses to test advanced accelerators.