“Wormholes are a gravitational phenomena. Or imaginary gravitational phenomena, as the case may be.” -Jonathan Nolan

Yes, we detected gravitational waves, directly, for the first time! Just days after Advanced LIGO first turned on, a signal of a 36 solar mass black hole merging with a 29 solar mass black hole gave us our first robust, direct detection of these long-sought waves, changing astronomy forever. Einstein’s General Relativity was validated in a whole new way, and over 40 years of work on developing and building LIGO was vindicated at last.

The inspiral and merger of the first pair of black holes ever directly observed. The total signal, along with the noise (top) clearly matches the gravitational wave template from merging and inspiraling black holes of a particular mass (middle). Image credit: B. P. Abbott et al. (LIGO Scientific Collaboration and Virgo Collaboration).

Now, it’s two years later, and yes, some of the most important team members have been awarded physics’ highest honor: the Nobel Prize. But gravitational wave astronomy isn’t over now; on the contrary, it’s only just beginning in earnest. With a third detector now online and two more coming along in the next few years, we’re not only poised to enter a new era in astronomy, we’re about to open up a whole new set of discoveries that would otherwise be impossible.

This three-dimensional projection of the Milky Way galaxy onto a transparent globe shows the probable locations of the three confirmed black-hole merger events observed by the two LIGO detectors—GW150914 (dark green), GW151226 (blue), GW170104 (magenta)—and a fourth confirmed detection (GW170814, light green, lower-left) that was observed by Virgo and the LIGO detectors. Also shown (in orange) is the lower significance event, LVT151012. Image credit: LIGO/Virgo/Caltech/MIT/Leo Singer (Milky Way image: Axel Mellinger).

Here’s where we are, and here’s how we do it! Find out what advances are already underway since this Nobel-winning discovery was made!


  1. #1 Ragtag Media
    October 3, 2017

    If Gravitational waves are real, then so is the potential for Star Trek like teleportation because of the plank scale size of data transfer potential

  2. #2 Pino
    Magna Graecia
    October 3, 2017

    What about Einstein? …
    He still doesn’t deserve the Prize for Relativity?

  3. #3 Michael Kelsey
    SLAC National Acclerator Laboratory
    October 3, 2017

    @Pino #2: You should do a very tiny bit of research. By the conditions of Nobel’s will, the prize cannot ever be awarded posthumously.

  4. #4 CFT
    October 4, 2017

    @Pino #2,
    I was just reading something about this, I think from Sabine Hossenfelder on her blog BackReaction. They award the prizes to living scientists only, otherwise the accomplishments of past scientists would pretty much swamp the accomplishments of presently living potential candidates.

  5. #5 gahermit
    October 4, 2017

    I’m not an astrophysicist, but i believe they will soon find that what we call super massive black holes are small compared to undiscovered real super massive holes.