An ideal pendulum is one in which no air resistance or friction is present. Hence when set into motion it never loses energy to it's surrondings.
So when released, and left to swing, the energy potential it had get's convertedinto kinetic energy and therefore the pendulum swings. When it reaches it's amplitude(Highest swing) the energy is converted back to potential, and as it falls back to kinetic. As it is "ideal" it never loses energy to heat/ friction. Therefore, the conversion of kinetic energy to potential etc etc will always be constant and it will never stop.
Although in reality it is impossible to have an "ideal" pendulum, near ideal ones can be obtained by suspending the pendulum in a vacuum.
A pendulum will swing back and forth indefinitely as long as it has enough energy to overcome friction and air resistance. The number of swings will depend on factors such as the length of the pendulum and the initial force used to set it in motion.
A pendulum.
transverse wave is an example of pendulum motion.
Some examples of things that move back and forth include a swing, a pendulum, a rocking chair, and a seesaw.
The period of a pendulum is the time it takes to complete one full swing back and forth. In this case, the period of the pendulum is 10 seconds (5 seconds for each half of the swing).
A pendulum will swing back and forth indefinitely as long as it has enough energy to overcome friction and air resistance. The number of swings will depend on factors such as the length of the pendulum and the initial force used to set it in motion.
A pendulum
A pendulum.
transverse wave is an example of pendulum motion.
Some examples of things that move back and forth include a swing, a pendulum, a rocking chair, and a seesaw.
The period of a pendulum is the time it takes to complete one full swing back and forth. In this case, the period of the pendulum is 10 seconds (5 seconds for each half of the swing).
The restoring force acting on a swing pendulum is due to gravity pulling the pendulum back towards the equilibrium position. This force is proportional to the displacement of the pendulum from equilibrium, causing the pendulum to oscillate back and forth.
The length of a pendulum affects the time it takes for one complete swing, known as the period. A longer pendulum will have a longer period, meaning it will take more time for one swing. This does not affect the number of swings back and forth, but it does impact the time it takes for each swing.
The main forces at play in a pendulum swing are gravity and tension. Gravity pulls the pendulum bob downward while tension in the string keeps it swinging back and forth. The motion of the pendulum is an example of simple harmonic motion, where the pendulum swings back and forth with a constant period.
The concept of a pendulum has been known since ancient times. However, the modern pendulum clock was invented by Dutch scientist Christiaan Huygens in 1656. He discovered that a weight on a string would swing back and forth with a constant period, making it ideal for timekeeping.
it all has to do with a pendulum when you swing back and forth you are using potenial and kinetic enery
The simple pendulum was first analyzed by Galileo Galilei in the late 16th century. He noticed that the time it takes for a pendulum to swing back and forth remains constant regardless of the amplitude of the swing.