It is converted to Inertia I think.
No, this does not violate the conservation of momentum principle. As the ball is thrown up, its vertical velocity decreases, causing a decrease in momentum in that direction. However, the overall momentum of the ball (including horizontal and vertical components) remains constant in the absence of external forces. When the ball reaches its highest point and falls back down, its vertical velocity increases again, conserving the total momentum of the system.
Friction between the carpet and the ball gradually slows down the ball's motion by converting its kinetic energy into heat. As the ball loses momentum, its speed decreases until it eventually stops moving.
One of the best examples of transfer of momentum is when a cue ball strikes a stationary billiard ball, causing the stationary ball to move while the cue ball slows down or stops. This transfer of momentum demonstrates the principle of conservation of momentum in action.
Yes, a ball thrown upwards loses momentum as it moves against gravity. Gravity acts as a force that opposes the motion of the ball, slowing it down until it eventually reaches its highest point and then starts to descend back down.
When a falling ball hits the ground, it experiences a sudden change in momentum and kinetic energy. The impact causes the ball to bounce back up due to the conservation of energy and momentum.
No, this does not violate the conservation of momentum principle. As the ball is thrown up, its vertical velocity decreases, causing a decrease in momentum in that direction. However, the overall momentum of the ball (including horizontal and vertical components) remains constant in the absence of external forces. When the ball reaches its highest point and falls back down, its vertical velocity increases again, conserving the total momentum of the system.
Friction between the carpet and the ball gradually slows down the ball's motion by converting its kinetic energy into heat. As the ball loses momentum, its speed decreases until it eventually stops moving.
Momentum (as energy) isn't lost, it is transferred. Momentum is lost to friction when the ball is rolling, but in the described situation, the momentum is basically all transferred to the box upon impact. The box may tip over if light enough, or the box may break, or if heavy enough and built well enough, the box may absorb the impact and be left seemingly untouched. If the ball continues to roll after impact (if it bounces over/around/off of the box, then only partial momentum has been transferred to the box.
One of the best examples of transfer of momentum is when a cue ball strikes a stationary billiard ball, causing the stationary ball to move while the cue ball slows down or stops. This transfer of momentum demonstrates the principle of conservation of momentum in action.
The ball with mass (m) hits the box at a certain velocity (v) and the momentum (mv) is equal to the force (F) at impact times the time (t) it takes to stop resulting in a high acceleration that will deform the box. Mathematically, Ft = mv ; F = mv/t You would need to know the box stiffness property to determine the time
Decreases the radius of the swing thus decreases the distance in which the ball will fly.
Momentum is a function of both mass and speed. The wrecking ball isn't moving very fast, but it is extremely heavy; that is where its momentum comes from.
Yes, a ball thrown upwards loses momentum as it moves against gravity. Gravity acts as a force that opposes the motion of the ball, slowing it down until it eventually reaches its highest point and then starts to descend back down.
When a falling ball hits the ground, it experiences a sudden change in momentum and kinetic energy. The impact causes the ball to bounce back up due to the conservation of energy and momentum.
The bowling ball does slow down. Momentum is conserved. It's just that it's a heavy ball so it has a lot of momentum, and the pins are light so overall the ball doesn't slow down enough for us to notice.
momentum As the speed of a rolling ball is increasing, the increasing speed is accompanied by: a. increasing momentum.
We used height to make it gain momentum. The more the height, the more momentum the ball gains.