54 million light-years away with an estimated mass equal to 7 billion Suns, that's nutso.
With the image capture done by essentially using the entire earth as a telescope.
54 million light-years away with an estimated mass equal to 7 billion Suns, that's nutso.
Time to stock up on beer and whiskey
This has a very good explanation of what we are seeing. This guy predicted what the picture would show even before it was released.
This has a very good explanation of what we are seeing. This guy predicted what the picture would show even before it was released.
So it is a fiery ball. Anything inside the inner orbit gets sucked in immediately up until the outer ring. The issue is, this light is not being reflected back to the scope, so it appears black. Telescopes work by capturing reflected light. What you are seeing is the pattern of light reflected that is bent around the event horizon. It's brighter on one side as that is the light that is coming towards us, the darker side is the light traveling away from us. Light itself orbits closer to the black hole creating a bright ring. But to answer your question, matter gets immediately sucked in around the black hole to a point. Up until that point, the pull is less. After that point, it's instantly gone hence an "orbit".
What's even crazier to think about is how space time around the black hole are altered. So the light we are seeing could very well be at different ages as well. Absolutely awesome.
Katie Bouman, who helped design the software and led the group, gave a TED talk about the process a few years back.