On the moon. When a Golf ball is struck on earth, gravity slows it and brings it to a halt. On the moon, there is very little gravity, so the potential energy of the golf ball is limitless.
Because the earth is a big ball of energy!!!!
a basketball (or pretty close)
The earths gravitational pull would effect the ball so that once it reaches a certaion height it wouold fall back to earth. It prevents the ball leaving earths atmosphere.
every thing on earth
No. As a ball accelerates toward the Earth, the Earth is also accelerating to the ball. The Earth's acceleration is much too small to be detectable. But multiplied by the Earth's large mass, it is equal and opposite to the increase in the ball's momentum.
gravitational energy is the same as potential and kinetic energy. When the ball is further from the surface of the earth it will have the most potential energy and when the ball gets closer to the surface of the earth that potential energy turns into kinetic energy because it is being used to move the ball towards the surface.
A cannon ball being shot upward into the air. The kinetic energy is the ball moving at high speeds, while the high potential energy is the height of the ball, as it will use this potential energy to fall back down to earth.
Gravitational potential energy is the potential energy an object has due to its position in a gravitational field. The higher an object is the greater its gravitational potential. When it falls the gravitational potential becomes kinetic energy. Energy stored in height differences ~APEX
it is kinetic because it involves releasing the energy.
A ball in your hand has gravitational potential energy. If you were to move the ball at all you would be transfering that energy into Kinetic energy.
If you were talking about gravitational potential energy, assuming each ball was at the same height, the one with the most potential energy would be whichever is heaviest. If each ball weighs the same, whichever one is highest up has more potential energy.
When a ball is dropped, it no longer has potential energy. Before it drops, you can calculate the potential energy (= mgh); to actually measure this, you would have to measure the force, and multiply that by the distance.
The ball has the highest potential energy at its maximum height (15m in the air). At the beginning, the ball has only kinetic energy and no potential energy. But as the ball travels upward, kinetic energy is converted into potential energy. When the ball changes direction, there is no kinetic energy, as all of it is now potential energy. As the ball returns back down, potential energy is converted back into kinetic energy.
When a ball is squashed, it gains potential energy due to the compression of its material. This potential energy is stored in the form of elastic potential energy, as the ball has the potential to return to its original shape when released.
Energy doesnt run out, it is just transferred. For example, a ball in a high place is said to have potential kinetic energy, if it then falls that energy is transferred to kinetic and thermal energy. Upon rest, the ball again has potential kinetic energy.
A ball at rest contains only potential energy. A ball in motion contains almost all kinetic energy. But it gets tricky here. A free falling ball that has not yet reached terminal velocity has no potential energy. That energy is being given up to kinetic energy. Once the ball reaches terminal velocity in Earth's atmosphere, air resistance holds back further conversion of potential energy to kinetic.
As we increase the altitude of the ball the potential energy increases.