Saturday, December 21, 2024
Contact    |    RSS icon Twitter icon Facebook icon  
Unexplained Mysteries
You are viewing: Home > News > Space & Astronomy > News story
Welcome Guest ( Login or Register )  
All ▾
Search Submit

Space & Astronomy

Gravitational waves announcement imminent

By T.K. Randall
February 9, 2016 · Comment icon 68 comments

Have scientists finally detected gravitational waves ? Image Credit: NASA/ESA/ESO
Scientists are set to make a 'major' announcement about gravitational waves this coming Thursday.
The hunt for gravitational waves - ripples in the fabric of space-time that carry energy across the universe - has been going on for years. First proposed by Albert Einstein as a consequence of his General Theory of Relativity back in 1916, this cosmological phenomenon could tell us a great deal about the universe and help us to better understand everything from black holes to the Big Bang.

Recently rumors have been circulating suggesting that scientists at the Advanced Laser Interferometer Gravitational-Wave Observatory (LIGO) might have actually detected signs of gravitational waves - something that has never been achieved before.

Now the team have revealed that they are going to be making an announcement this coming Thursday about their findings and it looks as though it is going to be a big one.
The LIGO detectors, which are located 3,000km apart in Hanford, Washington and Livingston, Louisiana, work by measuring how space-time stretches and contracts.

A third detector, which will be coming online later this year in Italy, should make it possible to triangulate the source of a signal if indeed evidence of one has been picked up.

For now though we'll have to wait and see what Thursday's announcement brings.

Update: It's official - gravitational waves have been detected by scientists - story here.

Source: New Scientist | Comments (68)




Other news and articles
Recent comments on this story
Comment icon #59 Posted by shadowsot 9 years ago
What I wonder about, is that as dark energy increases as it is theorized it will, what effect will it have on blackholes?
Comment icon #60 Posted by JesseCuster 9 years ago
Hey, you want to toss insults feel free, but that means I not going to "just drop it". If you weren't talking about the moon is a hologram silliness then what were you talking about? The first 2 YouTube results for "moon waves" are from notorious YouTube crank Crrow777 and are indeed about something called "moon waves" being related to the moon being a hologram. There's no YouTube channel by a user called "Cobrra77.I too am curious that if they weren't referencing silly videos by cranks and hoaxers on YouTube about moon waves and how the moon is a hologram, then what are they talking about? Pe... [More]
Comment icon #61 Posted by shadowsot 9 years ago
Checkers and pigeons.
Comment icon #62 Posted by Physics Phreak 9 years ago
This was not an effort to either prove or disprove "graviton theory" at all. That's a different ball-of wax. If the wavelength of the gravitational waves detected by LIGO is extremely long and the energy level is extremely low, does not that suggest the same wavelength-energy relationship as photons?
Comment icon #63 Posted by sepulchrave 9 years ago
If the wavelength of the gravitational waves detected by LIGO is extremely long and the energy level is extremely low, does not that suggest the same wavelength-energy relationship as photons? No, it does not. The energy of any arbitrary wave is almost always1 correlated with the amplitude and frequency of the wave, the latter being related to the wavelength through the wave's dispersion relationship. Gently plucking a long guitar string, gently paddling in one end of a swimming pool, or turning on Barry White at low volume will all generate long-wavelength, low-energy waves; but none of these... [More]
Comment icon #64 Posted by Derek Willis 9 years ago
No, it does not. The energy of any arbitrary wave is almost always1 correlated with the amplitude and frequency of the wave, the latter being related to the wavelength through the wave's dispersion relationship. The essential aspect of photons is that for monochromatic light of a given frequency, the total energy is always an integer multiple of Planck's constant. I don't follow what you are saying here. You start by saying the energy of any arbitrary wave almost always correlates with amplitude and frequency. You then say that the energy of a photon is an integer multiple of Planck's constant... [More]
Comment icon #65 Posted by sepulchrave 9 years ago
I don't follow what you are saying here. You start by saying the energy of any arbitrary wave almost always correlates with amplitude and frequency. You then say that the energy of a photon is an integer multiple of Planck's constant. By this I assume you are saying E = h x frequency. So are you including electromagnetic waves as "any arbitrary wave" or are you making the distinction that with electromagnetic waves the energy is a function of frequency only, and is not dependent on amplitude? No I am not making that distinction. Electromagnetic waves are ``waves'', and the energy of these does... [More]
Comment icon #66 Posted by Derek Willis 9 years ago
No I am not making that distinction. Electromagnetic waves are ``waves'', and the energy of these does correlate with the amplitude and the frequency. Physics Freak was referring to an earlier posting regarding gravitons and suggested the long wavelength and low energy of the gravity waves detected by LIGO is the same wavelength/energy relationship as photons. My understanding of photons is that the energy is E = hf, and that the amplitude of a photon has no physical meaning but rather is the probability of locating the photon at any given place, as in Schrodinger's Wave Equation in general. A... [More]
Comment icon #67 Posted by sepulchrave 9 years ago
Physics Freak was referring to an earlier posting regarding gravitons and suggested the long wavelength and low energy of the gravity waves detected by LIGO is the same wavelength/energy relationship as photons. Right, my point is that if you only observer one gravity wave, the energy will always be proportional to the frequency. But one data point is not enough to infer a general rule. Furthermore the gravity wave that was observed was more of a ``wavepacket'' consisting of multiple superimposed frequencies. One would need many additional observations of separate gravity waves before being ab... [More]
Comment icon #68 Posted by TripGun 9 years ago
I heard that LIGO is so sensitive that they have to know when Rosie O'Donnell does any traveling.


Please Login or Register to post a comment.


Our new book is out now!
Book cover

The Unexplained Mysteries
Book of Weird News

 AVAILABLE NOW 

Take a walk on the weird side with this compilation of some of the weirdest stories ever to grace the pages of a newspaper.

Click here to learn more

We need your help!
Patreon logo

Support us on Patreon

 BONUS CONTENT 

For less than the cost of a cup of coffee, you can gain access to a wide range of exclusive perks including our popular 'Lost Ghost Stories' series.

Click here to learn more

Recent news and articles