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.
The ball has maximum potential energy at its highest point, which is at a height of 15 meters when it is thrown into the air.
The maximum potential energy of the ball occurs at the maximum height it reaches, which is 15m above the ground. This is because potential energy is directly proportional to height above a reference point, usually the ground level.
The work done by the student to throw the ball upwards is equal to the potential energy gained by the ball at the maximum height. The work done is given by the formula: work = force * distance. In this case, the student exerted a force to lift the ball against gravity to a height of 7.50 m, so the work done is equal to the potential energy gained by the ball, which is mgh, where m is the mass of the ball, g is the acceleration due to gravity, and h is the height.
Potential Energy - Stored Energy or the potential to do work Kinetic energy is energy of motion, as you in a car. If the car runs into a tree, the kinetic ehergy in your body throws you into the windshield. And it hurts.
The Ball has energy in the form of potential energy as if it was released it would fall to the ground. The pitcher uses chemical energy to move his arm and give momentum to the ball. The ball's energy is now transformed to kinetic energy as it moves through the air.
The ball has maximum potential energy at its highest point, which is at a height of 15 meters when it is thrown into the air.
The maximum potential energy of the ball occurs at the maximum height it reaches, which is 15m above the ground. This is because potential energy is directly proportional to height above a reference point, usually the ground level.
The work done by the student to throw the ball upwards is equal to the potential energy gained by the ball at the maximum height. The work done is given by the formula: work = force * distance. In this case, the student exerted a force to lift the ball against gravity to a height of 7.50 m, so the work done is equal to the potential energy gained by the ball, which is mgh, where m is the mass of the ball, g is the acceleration due to gravity, and h is the height.
Potential Energy - Stored Energy or the potential to do work Kinetic energy is energy of motion, as you in a car. If the car runs into a tree, the kinetic ehergy in your body throws you into the windshield. And it hurts.
The Ball has energy in the form of potential energy as if it was released it would fall to the ground. The pitcher uses chemical energy to move his arm and give momentum to the ball. The ball's energy is now transformed to kinetic energy as it moves through the air.
nonmechanical
The kinetic energy comes from potential energy, which he got from ATP energy, which is produced through food. Potential energy is converted to kinetic energy after the muscles contract and relax. Sources: School science
Depends what height it falls from or how hard Vinny throws it.
0.82 metres.
At the very top of the ball's path, its velocity is momentarily zero. This is because as the ball reaches its maximum height, it stops moving vertically before falling back down due to gravity.
In a standard 10 frame game, you get two throws per frame for frames 1 to 9. In the tenth frame, you get two throws plus a bonus throw for a total of three. The minimum number of throws would be 12, this would be in a perfect game (a 300 game). The maximum number of throws would be 21.
1) To have a height advantage in catching "throws" and 2) To be able to see the parades better as the crowds form.