Gravity imparts a force on an object. That force is proportional to the mass of the object. That force can cause the object to move, i.e. to accelerate and change velocity and/or distance. Other than that, gravity does not affect an object.
f = ma
where f = force in newtons, m is mass in kilograms, a is acceleration in meters per second squared. That suffices for the one body problem with a known gravity field, such as a=9.81 m s-2 on the Earth.
For the two body problem, such as Earth/Moon calculations or where a is unknown, you can use
f = G(Mm/r2)
where f = force in newtons, G is the universal gravitation constant, 6.674 x 10-11 n m2 kg-2, M and m are the masses of the two bodies in kilograms, and r is the distance between them in meters.
It keeps you stuck to the ground, it holds the air down, it makes rivers flow. etc etc etc
Gravity affects weight, it does not affect mass.
Depending on the greater or less the mass is gravity's affect on the object is not applicable as gravity is a never ending motion which does nothing but keep objects intact on planets.
Yes. Mass is constant for a given object. Weight is a function of mass and gravity, stronger gravity more weight.
Gravity pulls down the object catapulted and brings it to the ground.
Acceleration of a falling object is directly proportional tothe force of gravity in the object's location.
Zero gravity does not affect inertia. The inertia of an object is an inherent property of the object and is directly proportional to the object's mass.
Sin no
Gravity and friction.
No, mass remains constant.
the object has less mass. the object has a large surface.
The object is accelerated towards the centre of mass of system formed by the object moving and the other object.
It doesn't, the gravity is low, so it just makes you jump higher, an object's mass is unchanged.