A pendulum works in a pretty straightforward way. Imagine you have a weight hanging on a string or rod, and you pull it to one side and let go. What happens is a game of energy swapping. Initially, when you pull the pendulum up, you're giving it potential energy — the energy it has due to its position. Then, when you
A simple pendulum is basically a weight hanging from a string or rod that can swing back and forth. When you pull it to one side and let go, gravity makes it swing.
T = 2 * pi * sqrt(L / g) Where: T is the period of the pendulum. pi is approximately 3.14159. sqrt() denotes square root. L is the length of the pendulum. g is the acceleration due to gravity.
The period of a pendulum, which is the time it takes for one complete back-and-forth swing, is mainly influenced by two factors: Length of the Pendulum (L) - The period is directly proportional to the square root of the length of the pendulum. This means that a longer pendulum will have a longer period, swinging more
A common example of a pendulum in real life is the swinging mechanism in traditional pendulum clocks, like grandfather clocks. In these clocks, a pendulum swings back and forth at a consistent rate, controlling the gears and hands of the clock to keep accurate time. The regular motion of the pendulum is key to the clo
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