Because it loses some of its kinetic energy when it hits the ground. Some of the energy gets transfered downward, but some energy is reverted backward.
The onomatopoeia for a ball bouncing is "boing" or "bounce."
Yes, the height of a bounce is affected by the height from which the ball is dropped. The higher the ball is dropped from, the higher it will bounce back due to the transfer of potential energy to kinetic energy during the bounce.
A series of images showing a ball being dropped from different heights at varying temperatures, with the resulting bounce height measured. A side-by-side comparison of a ball bouncing on surfaces at different temperatures to visually demonstrate the effect of temperature on the bounce. Infographic illustrating the relationship between temperature and bounce height of a ball, with temperature as the x-axis and bounce height as the y-axis.
because some of the energy that helps the ball to bounce is absorbed into the surface it is bouncing on (because the ball can be squashed) and so the energy deflected back up into the air again is less and less each time it bounces.
The bouncing ball rises to a lower height with each bounce due to energy losses in the form of heat, sound, and deformation of the ball upon impact with the ground. The energy conversion taking place is from kinetic energy of the ball to other forms of energy like thermal and sound energy.
bouncing the ball at room temperature, before heating or freezing it, and then measuring the height of the bounce.
The ball does not return to its initial height after bouncing. So the height it reaches after the first bounce will be a fraction of the initial height, etc. This is a geometric sequence with common ratio 5/8.
The onomatopoeia for a ball bouncing is "boing" or "bounce."
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Yes, the height of a bounce is affected by the height from which the ball is dropped. The higher the ball is dropped from, the higher it will bounce back due to the transfer of potential energy to kinetic energy during the bounce.
The lyric is " rubber ball, you come bouncing back to me" The song is "Rubber Ball" sung by Bobby Vee. Written by Aaron Schroeder and Ann Orlowski.
A series of images showing a ball being dropped from different heights at varying temperatures, with the resulting bounce height measured. A side-by-side comparison of a ball bouncing on surfaces at different temperatures to visually demonstrate the effect of temperature on the bounce. Infographic illustrating the relationship between temperature and bounce height of a ball, with temperature as the x-axis and bounce height as the y-axis.
because some of the energy that helps the ball to bounce is absorbed into the surface it is bouncing on (because the ball can be squashed) and so the energy deflected back up into the air again is less and less each time it bounces.
The bouncing ball rises to a lower height with each bounce due to energy losses in the form of heat, sound, and deformation of the ball upon impact with the ground. The energy conversion taking place is from kinetic energy of the ball to other forms of energy like thermal and sound energy.
The energy conversion taking place is from potential energy to kinetic energy as the ball falls and gains speed. Then, as the ball bounces back up, kinetic energy is converted back into potential energy as the ball rises to a lower height.
The ball will bounce back to a height less than its original drop height of 50 cm due to energy loss during each bounce. The exact height the ball will bounce to depends on the ball's elasticity and the surface it bounces on.
A bouncing ball lowers and its height each time it bounces because of gravity counter acts the force of rise