Yes. Weight is the gravitational force X the mass of an object. The further away from the center of the earth, the less the gravitational force. So you would weigh more at sea level than you would on top of Mt. Everest.
An object that is stationary on the earth's surface moves in a small circle, unless it's on the equator when it moves in a great circle.
An object on the surface of Mars weighs about 37% of its weight on the surface of earth.
It's called Coriolis force.
It is called a meteorite
576 feet
No, your weight is just the acceleration due to the Earth's gravity,
Gravity and the upward force of the surface the object is resting on.
It is the Trajectory.
A metior
Altitude. Height. Depends on what you are measuring.
The earths surface, a building, and a moving object
The weight of any object on the surface of the moon is 16.55% of its weight on the surface of the Earth.
The larger the mass of an object, the greater the force it will exert on other objects. But as the distance from that object becomes greater, the gravitational pull becomes smaller. For example, the sun has a larger mass than the earth, so gravity on the suns surface would be much greater than on earths surface. Also, as you get further and further away from the earth, the less you are influenced by its gravity.
Force (newtons) = mass (kg) * acceleration (m/s/s) > Acceleration at earths surface radius = 9.82 m/s/s
No. The mass is constant. Until it hits.
Gravitational potential energy is: m*g*h m=mass g=acceloration due to gravity h=height in relation to zero level/energy because earth's surface (with rare exception) is zero level/energy, meaning that you cant make things fall further than the surface of earth; the potential energy of an object changes based on how much distance you put between the surface and the object, yes.
That is called gravitational potential energy.