When falling to the ground (or even just in the air), the acceleration of an object depends on the gravitational pull of the object it is falling towards. Here on earth, all things fall relative to the earth which causes an acceleration of 9.81 m/s^2
When objects fall towards an object, their acceleration depends on the gravitational pull of the object. Here on earth, things fall relative to the earth whose gravitational pull causes objects to accelerate at 9.81 m/s^2.
On Earth 9.81metres/second^2
graviy
No. Weight has nothing to do with how fast objects fall, except for things that get in the way, like air, it's all gravity.Related Information:The phenomenon of falling is caused by the gravity of at least two objects, like a stone and the Earth, mutually attracting one another. For objects falling to Earth, there is the added negative force of drag (the resistance of air friction working against gravity). Drag acts to slow the rate of fall of any object that it acts upon. Objects of lesser density, or poor aerodynamic qualities, are affected more than objects of greater density or excellent aerodynamic qualities. Drag can be virtually eliminated readily, by allowing objects to fall in a vacuum chamber where feathers, dust bunnies, and bowling balls fall at the same rate.
if body is free falling state its acceleration would be 9.8meter/second2
drag
On Earth 9.81metres/second^2
It is approx 9.81 metres per second-squared.
Artificial or natural; they're falling. One definition of flying is to throw yourself at the ground and miss. All these objects are doing just that. (including the Earth in its path around the sun) As an example: you know that the Earth is curved. You fall towards it due to gravity. If you move fast enough (to orbit) then you have to move fast enough so that the surface of the planet falls away AS FAST AS you are falling due to its gravity.
A.) They accelerate by there bones and your heart. If your heart is fast you will be fast, if your heart is slow you will go slow.
Really fast
Objects accelerate as they fall. Their speed increases at a rate of 9.81 m/s2 on or near the Earth's surface. So, after falling for one second, an object (in a vacuum) will be moving 9.81 m/s, or roughly 32 ft/s. This is, at least, the theoretical speed. This seems like a very fast number, and it is, because a number of factors have been ignored. Real objects displace air as they fall (causing turbulent and viscous flow), which slow them. The amount of air displaced and how much this effects the object depends on the object's shape and density. For example, a crumpled sheet of paper falls faster than a new sheet, and a bird's feather falls more slowly than a lead feather. Also, if an object falls 1m (about 3ft) to the ground, it will be moving at about 4m/s (~13ft/s) when it hits the ground.
acceleration
-- Gravity pulls harder on objects with more mass than it does on objects with less mass. -- But objects with more mass need more force on them to accelerate as fast as objects with less mass. -- So it all balances out . . . no matter how much mass an object has, every object on Earth falls with the same acceleration.
Accelerate around the corners
45mph
They are not actually falling. They are moving at very fast speeds relative to other objects. They are also being attracted or "nudged by much larger object by gravity. They don't - falling is only done in relation to another body
0 to 87 in about 12 seconds