On 20 February, dignitaries will descend on Virgo, Europe's premier gravitational
wave detector near Pisa, Italy, for a dedication ceremony to celebrate a 5 - year, $ 24 million upgrade.
Not exact matches
A gravitational
wave will warp space and briefly change the relative distance between the mirrors and photo
detector situated
near the LIGO control room.
Later this year, European partners of the LIGO collaboration plan to restart their revamped gravity
wave observatory, Advanced Virgo,
near Pisa, Italy, providing a crucial third ultrasensitive
detector for pinpointing gravity
wave sources.
It's the first gravitational
wave sighting to be made with three
detectors: LIGO's two
detectors (in Livingston, La., and Hanford, Wash.) and Virgo's
detector near Pisa, Italy.
At 12:41 universal time on 17 August, physicists with three massive instruments — the twin 8 - kilometer - long
detectors of the Laser Interferometer Gravitational - Wave Observatory (LIGO) in Hanford, Washington, and Livingston, Louisiana, and the 6 - kilometer Virgo
detector near Pisa, Italy — spotted
waves unlike any seen before.
The project was set up in February 2005 as way of searching for gravitational
waves (also emitted by pulsars) in data collected by the Laser Interferometer Gravitational - Wave Observatory (LIGO)
detector instruments located in Livingston, La., and on the Hanford Nuclear Reservation
near Richland, Wash..
Gravitational
waves emanating from the spiraling neutron stars triggered LIGO
detectors in Hanford, Washington, and Livingston, Louisiana, and the French - Italian Virgo
detector near Pisa, Italy.
LIGO should also provide new, rigorous tests of Einstein's general theory of relativity, and — working with other gravitational
wave detectors due to come online in the
near future — pinpoint precisely where in the sky the
waves are coming from.
The two
detectors of the Laser Interferometer Gravitational -
wave Observatory (LIGO), in Hanford (WA) and Livingston (LA), and the Virgo
detector,
near Pisa, Italy, have detected gravitational
waves from colliding neutron stars for the first time.
The spectacular event took place around 1.8 billion light years from Earth, so this is how far the gravitational
waves would have had to travel before being detected first by the Advanced LIGO
detector in Louisiana (USA), followed by a second detection by the second LIGO
detector in Washington State (USA), and then finally the third detection was picked up by the Advanced Virgo
detector near Pisa (Italy).
The search for gravitational
waves will soon gain an additional set of ears, in the form of Virgo, a similar
detector located
near Pisa, Italy, that is scheduled to come online this summer and will pair with LIGO.