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That's not how gravitational acceleration works. If the particle accelerates towards black hole it will decelerate when the leaves the black hole. To actually
by ars 3y ago
That's not how gravitational acceleration works.
If the particle accelerates towards black hole it will decelerate when the leaves the black hole.
To actually accelerate and keep it, you need a third particle. In a spaceship that third particle is the fuel.
In a solar system that third particle is the planets interacting with their sun.
My post is telling you what's needed without explaining it at all, please watch some YouTube videos to actually understand it.
- NegativeK 3y agoYou can extract energy from a rotating black hole via slingshotting around it. But it's not an amount relevant to this discussion.
- scotty79 3y agoIs the amount bounded? Doesn't it get higher the closer the particle gets during the maneuver?
- pixl97 3y agoSo, I'd say it's a little more complicated than this even. There are orbitals around black holes where particles could maintain stable orbits for long periods of time. Now when you get a complex environment around said black hole with lots matter attempting to infall but not having the correct momentum you will get a lot of interaction between particles of different velocities, hence why we actually see black holes at all. you get matter crashing into each other releasing gamma rays and such. From these interactions alone you can get gravitational particle acceleration. It just gets more complicated from here as you add magnetic field interactions.