A new NASA computer simulation shows that dark matter particles colliding in
the extreme gravity of a black hole can produce strong, potentially observable gamma - ray light.
Not exact matches
Gravity is the weakest
of the four fundamental forces, so only the most
extreme events —
black holes colliding, neutron stars twirling, a supernova erupting — would produce detectable waves.
The gap between Einstein and Newton increases as
gravity gets stronger and the curvature
of space more
extreme —
black holes being the most
extreme case
of all.
General relativity has never been tested in places where the effects
of gravity become truly
extreme — for example, at the edge
of a
black hole.
This behavior aligns with Albert Einstein's predictions about
extreme gravity near rotating
black holes, published in his famous theory
of general relativity.
A century later, that insight underpins cutting - edge physics: searching for gravitational waves, probing the
extreme gravity near the supermassive
black hole at the center
of our galaxy, tracing the origin
of the universe.
The gap between Einstein and Newton increases as
gravity gets strongerand the curvature
of space more
extreme —
black holes being the mostextreme case
of all.
But once this is achieved, EHT astronomers expect to be able to resolve an image
of Sagittarius A *'s shadow and see small - scale structures surrounding the
black hole, confirming some
of the most
extreme theories for physics in this strong
gravity environment and, perhaps, revealing some surprises along the way.
If the observations are confirmed, then it shows that Einstein's theory
of general relativity holds even under
extreme conditions — in
gravity fields produced by objects like the galactic center's
black hole, which contains the mass
of 4 million suns.