The gravitational force of black hole is unlimited.
Your "weight" is the magnitude of the gravitational force between you and another mass. -- In deep space, far from any other mass, the gravitational force between you and any other mass would be very small, but never zero. -- Near a back hole, the gravitational force between you and the black hole would be (gravitational constant) x (your mass) x (black hole's mass)/(your distance from the black hole)2
Gravity, the force that keeps things from flying off our planet, is also the force that prevents light from leaving a black hole. A black hole is presumed to consist of matter so densely compacted that its gravitational force is sufficient to hold back even the highest energy particles known.
Yes, black holes are an example of negative pressure. This is because they exert gravitational force so strong that nothing, not even light, can escape from them, creating a region of extreme gravitational pressure.
A black hole exerts such a strong gravitational pull that not even electromagnetic radiation, including visible light, can escape its grasp. The intense gravitational force of a black hole warps spacetime to create a region from which nothing, not even light, can escape.
Same as the force between any two objects in the universe, even if one of them happens to be a black hole ...Force = G m1m2/R2G = the universal gravitational constantm1 = mass of one objectm2 = mass of the other objectR = the distance between themIn theory, this formula may break down and become inaccurate at distances close to the black hole. It's really hard to check it out because, well, nobody has ever seen a black hole ...But at ordinary typical everyday astronomical distances, this formula is just as accurate for black holes as it is for the gravitational force between two bowling balls.
gravitational force
As soon as It's born. The gravitational force of the Black Hole will pull matter into it.
Yes, there's gravity in a black hole.. gravitational force is exerted wherever there is mass.
Your "weight" is the magnitude of the gravitational force between you and another mass. -- In deep space, far from any other mass, the gravitational force between you and any other mass would be very small, but never zero. -- Near a back hole, the gravitational force between you and the black hole would be (gravitational constant) x (your mass) x (black hole's mass)/(your distance from the black hole)2
A black hole has the greatest force of gravitational attraction. Even light rays can't escape.
If gravitational force is strong enough, light itself is affected by the gravity. The gravitational force of a black hole is so intense that light cannot escape from it. No light, nothing to see. It appears as a "black hole".
A black hole has the greatest force of gravitational attraction. Even light rays can't escape.
The gravitational force of black holes is extremely strong due to their immense mass and density. This force is so powerful that not even light can escape from a black hole's gravitational pull, making them some of the most mysterious and fascinating objects in the universe.
When something escapes a black hole, it means that it has managed to overcome the intense gravitational pull of the black hole and move away from it. This is a rare and complex event, as black holes are known for their strong gravitational force that can trap even light.
The size of a black hole is determined by its mass, with smaller black holes having a smaller size. The gravitational pull of a black hole is incredibly strong due to its mass being concentrated in a very small space, creating a powerful gravitational force that can even trap light.
It basically draws you in with massive gravitational force which even light can't escape.
Gravity, the force that keeps things from flying off our planet, is also the force that prevents light from leaving a black hole. A black hole is presumed to consist of matter so densely compacted that its gravitational force is sufficient to hold back even the highest energy particles known.