With a quantum “squeeze,” clocks could keep even more precise time, MIT researchers propose
More stable clocks could measure quantum phenomena, including the presence of dark matter.
More stable clocks could measure quantum phenomena, including the presence of dark matter.
Cosmologist and MLK Scholar Morgane König uses gravitational waves to study the universe’s origins, inflation, and present trajectory.
The MIT-led Cosmic Explorer project aims to detect gravitational waves from the earliest universe.
The next run will be the most sensitive search yet for gravitational waves.
Current measurements of black holes are not enough to nail down how the invisible giants form in the universe, researchers say.
Researchers at the Center for Theoretical Physics lead work on testing quantum gravity on a quantum processor.
Professors Arup Chakraborty, Lina Necib, and Ronald Fernando Garcia Ruiz as well as Yuan Cao SM ’16, PhD ’20; Alina Kononov ’14; Elliott H. Lieb ’53; Haocun Yu PhD ’20; and others honored for contributions to physics.
Professor led MIT department for eight years, playing pivotal leadership roles at the Institute and in physics research and community-building.
Faculty, staff, and alumni recognized for outstanding contributions to physics research, education, and policy.
A National Science Foundation-funded team will use artificial intelligence to speed up discoveries in physics, astronomy, and neuroscience.
Mergers between two neutron stars have produced more heavy elements in last 2.5 billion years than mergers between neutron stars and black holes.
Study offers evidence, based on gravitational waves, to show that the total area of a black hole’s event horizon can never decrease.
The five-year award aims to empower “the most promising innovators in science and technology.”
In a 3Q, Salvatore Vitale describes how gravitational-wave signals suggest black holes completely devoured their companion neutron stars.