The gravitational acceleration at the event horizon will depend on the radius and mass of the black hole. Here are two equations:
If the radius is known, then a = (c^2)/2r
If the mass is known, then a = (c^4)/4Gm where G is the gravitational constant (6.67x10^-11)
Yes, force is the gravitational acceleration multiplied by the mass of that object. Should the gravitational acceleration increase (as on a different planet) or should the object's mass increase, the gravitational force on the object will as well.
We know that force of gravitation is F=GMm/R2 where G is gravitational constant,M is mass of earth,m is mass of object & r is the distance between center of earth n object & F=mg where g is acceleration due to gravity. so, mg=GMm/R2 g=GM/R2 from above relation it is clear that gravitational acceleration does not depend upon mass of object.So it is same for all objects near earth.
horizon is STUPID
32 grams I know this because of my scientific background I have also been to the moon.
The relationship between force and acceleration mathematically is proportional, as seen in the second low of motion F = m*a. The acceleration of an object will be equal to the ratio of the net force on the object to the mass.
No, white dwarfs do not have an event horizon. Event horizons are a characteristic feature of black holes, where the gravitational pull is so strong that not even light can escape. White dwarfs are dense stellar remnants, but they do not have the extreme gravity needed to form an event horizon.
An event horizon starts at precisely the moment a singularity does. The event horizon isn't so much a thing as a place. Like the Earth's Equator. It is the result of the singularity's gravitational pull and it will remain as long as the singularity does.
Once matter crosses an event horizon, it cannot escape. Therefore, no information or signal can be detected from the matter beyond the event horizon. This is due to the intense gravitational pull of the black hole that prevents anything, including light, from escaping.
Beyond the event horizon of a black hole, the gravitational pull is so strong that not even light can escape. This means that no information or light can reach us from beyond the event horizon, making it impossible for us to see anything past it.
All of them. It is only when you cross the event horizon, are you subject to the immense gravitational attraction.
The event horizon of a black hole is a boundary beyond which the gravitational pull is so strong that not even light can escape. This means that anything beyond the event horizon is invisible to us, as no light or information can reach us from that region.
The gravitational pull on your feet would be extremely strong if you were standing at the edge of an event horizon, as the gravity near a black hole is very intense. This would cause a significant force pulling you towards the black hole.
Gravitational acceleration is simply acceleration due to gravity.
The term "event horizon" was coined by physicist John Michell in 1783 to describe a boundary in space-time beyond which light and matter cannot escape the gravitational pull of a black hole.
A black hole has an event horizon, beyond which nothing can escape, including light. Neutron stars also have an event horizon, called the "surface" or "crust," which marks the boundary within which matter is crushed by extreme gravity. White dwarfs, being less massive, do not have an event horizon.
Simply divide the mass of the black hole by the volume contained within the event horizon. This is fairly simple for a typical black hole, since the event horizon will approximate a sphere whose radius is the collapsed object's Schwarzschild radius.
Yes, black holes have a diameter, which is referred to as the event horizon. The event horizon is the region beyond which nothing, not even light, can escape the immense gravitational pull of the black hole. This diameter can vary depending on the mass of the black hole.