Because of the forces that act on the ball in the direction opposite
to its motion ... air resistance and friction with the floor.
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.
The ball slows down and stops due to the force of friction acting in the opposite direction of its motion. As the ball rolls, friction between the ball and the floor converts some of its kinetic energy into heat, causing it to lose speed. Without an external force to maintain its motion, such as continual pushing, the ball will eventually come to a stop due to this frictional force.
The primary force that acted to slow and stop the ball would be kinetic friction between the ball and the cement sidewalk. This friction force opposes the motion of the ball and eventually causes it to come to a stop.
The kinetic energy of the ball is converted into elastic energy through deformation (I assume we are not talking about steel balls). The elastic energy is then released, pushing the ball back up. Some energy is lost in the ball where it will cause heating, and some is probably lost to the floor, depending how elastic the floor is, so the rebound bounce won't reach the same height as the initial height, but total energy must be conserved.
A lot of things happen when an object bounces. Some of the objects energy, or momentum, goes into the floor which causes the surrounding floor to warm up slightly. Also, there is inefficiency that will cause the ball to eventually stop bouncing. Also, hearing the ball hit the floor means that energy went into the surrounding air molecules, causing them to heat up slightly as well as allowing you to hear the ball hit the floor. All of this causes energy to be lost in the bouncing.
Friction
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.
do do do come on and do the conga do do do trail across the floor you you you come on and do the conga do do do trail across the floor
No. That statement is false, mainly because it is not true. When you roll a ball across the floor, it comes to a stop because the inevitable friction where the ball contacts the floor robs it of kinetic energy. If the friction could be eliminated, the ball would not come to a stop. No force is required to keep a moving object moving.
The ball slows down and stops due to the force of friction acting in the opposite direction of its motion. As the ball rolls, friction between the ball and the floor converts some of its kinetic energy into heat, causing it to lose speed. Without an external force to maintain its motion, such as continual pushing, the ball will eventually come to a stop due to this frictional force.
The primary force that acted to slow and stop the ball would be kinetic friction between the ball and the cement sidewalk. This friction force opposes the motion of the ball and eventually causes it to come to a stop.
You won't believe this one...a tennis ball. Simply rub a tennis ball on the scuff and it will come right up. Put the tennis ball on an old mop stick and have a ball getting marks off the floor. Trust me..Walmart uses this one.
In 20 years of professional archaeology in Ireland and the UK, I can honestly say that I have never come across the term 'vertical floor'
It is not uncommon in the USA to come across a dime on the floor. Some people think that this symbolizes luck.
The kinetic energy of the ball is converted into elastic energy through deformation (I assume we are not talking about steel balls). The elastic energy is then released, pushing the ball back up. Some energy is lost in the ball where it will cause heating, and some is probably lost to the floor, depending how elastic the floor is, so the rebound bounce won't reach the same height as the initial height, but total energy must be conserved.
A pound of lead was divided into equal parts and then formed into perfect balls and the diameter of the ball would be the gauge. I.E. One pound of lead divided into twelve (12) equal parts and one was rolled into a perfect ball; the size of the ball is twelve (12) gauge.
Those are the terms used in the sport of baseball.