This force is called the Universal gravitational force. The following equation is used determine the magnitude of this force. Fg = G * M * m ÷ d^2 G = 6.67 * 10^-11 M is the mass of the earth, 5.98 * 10^24 kg m is the mass of the falling object. d is the distance from the center of the earth to the object. If the object is near the surface of the earth, we use the radius of the earth for this distance. Radius = 6.38 * 10^6 meters.
The force that pulls an object toward earth also pulls the earth toward the object.
The two forces are equal. Together, we refer to them as the forces of gravity.
Until the object reaches it terminal velocity
There is none. Let's say you and the earth were the only 2 objects in our Universe. The two of you would immediately start falling toward EACH OTHER. Of course, with earth being a gigantatillion times bigger than you, all you would notice (if you had delicate instruments to measure your movement) is you falling toward earth. So there is no definite distance from earth before you start falling toward it. In reality, there are trillions of stars and gazillions of tons of space dust - you would fall toward them instead of toward earth, but there would STILL be a tiny tiny amount of falling toward earth.
Our Earth is not in a falling orbit.
terminal velocity
The energy they obtain is gravitaional potential energy. So they are falling toward the centre of earth - but will most likley just land on the crust of our planet.... unless there was a really big hole.
1000
The force that pulls an object toward earth also pulls the earth toward the object.The two forces are equal. Together, we refer to them as the force of gravity.
Yes it is
at terminal velocity
Gravity
gravity
Gravitational force