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Gravitational waves are ripples in space-time caused by massive accelerating objects, such as black holes. The Institute of Gravitational Wave Astronomy at Birmingham brings together expertise from a wide spectrum of disciplines to open a new window on the Universe.
News: This year's Nobel Prize in Physics was awarded for the detection of gravitational waves. Find out the role Birmingham played and our role in the first direct observation of colliding neutron stars.
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The group at Birmingham
The Birmingham team were instrumental in the discovery
The research at Birmingham covers laser optics, quantum macroscopic systems, metrology, general relativity, astrophysics, advanced numerical methods and astro-statistics. The Birmingham group has strong involvement in a wide spectrum of projects in gravitational wave astronomy: Advanced LIGO; GEO 600; the Einstein Telescope; LISA Pathfinder and eLISA, and the European and International Pulsar Timing Arrays.
More information: LIGO Open Science Center data release. Paper: Observation of Gravitational Waves from a Binary Black Hole Merger.
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What are gravitational waves?
The detection of gravitational waves
Posted 03 December 2018
Researchers from the LIGO and Virgo Collaborations have announced gravitational wave observations of four new binary black holes and released their first catalogue of gravitational wave events.
Posted 16 October 2017
For the first time, scientists have directly detected gravitational waves -- ripples in space and time -- in addition to light from the spectacular collision of two neutron stars. This is the first time that astronomers have been able to study the same event with both gravitational waves and light.
Posted 03 October 2017
Astrophysics experts from the University of Birmingham have welcomed the award of the 2017 Nobel prize in physics to a trio of gravitational wave science pioneers.
Posted 01 June 2017
The LIGO-Virgo Team – a worldwide team of research institutions, including the University of Birmingham – has detected a new gravitational-wave signal emanating from the collision of two black holes. The discovery adds further evidence for Einstein's famous theory of general relativity, and confirms the existence of a previously unknown population of black holes.
Posted 05 April 2017
Astrophysicists at the University of Birmingham have made progress in understanding a key mystery of gravitational-wave astrophysics: how two black holes can come together and merge.