If you know the time, t, taken for N (complete) oscillations then the period, P, is P = t/N
The time period of a pendulum will increase when taken to the top of a mountain. This is because the acceleration due to gravity decreases at higher altitudes, resulting in a longer time for the pendulum to complete each oscillation.
Increases.
Not in the theoretical world, in the practical world: just a very little. The period is determined primarily by the length of the pendulum. If the rod is not a very small fraction of the mass of the bob then the mass center of the rod will have to be taken into account when calculating the "length" of the pendulum.
The longer the length of the pendulum, the longer the time taken for the pendulum to complete 1 oscillation.
The period of a wave is defined as the time taken by a wave to complete one oscillation. While, the frequency of a wave is defined as the number of oscillations completed by a wave in one second.
A stopwatch or a timer can be used to measure the time taken for the pendulum to make 20 oscillations. Start the timer when the pendulum starts swinging and stop it when it completes 20 oscillations to determine the time elapsed.
The period of oscillation is the time taken for one complete oscillation. The frequency of oscillation, f, is the reciprocal of the period: f = 1 / T, where T is the period. In this case, the period T = 24.4 seconds / 50 oscillations = 0.488 seconds. Therefore, the frequency of oscillation is f = 1 / 0.488 seconds ≈ 2.05 Hz.
This pendulum, which is 2.24m in length, would have a period of 7.36 seconds on the moon.
The time taken for a simple pendulum to swing to and fro in one cycle is called the period of the pendulum.
The time period T of a pendulum is given by T = 2π√(L/g), where g is the acceleration due to gravity. It is the time taken for the pendulum to complete one full oscillation. The length of the pendulum, L, affects the time period - longer pendulums have longer time periods.
if by arc you mean the "Period" of the pendulum then yes, it does: with each revolution the period of the pendulum (the time taken to swing back and forth once) does decrease.
No, the amplitude of a pendulum (the maximum angle it swings from the vertical) does not affect the period (time taken to complete one full swing) of the pendulum. The period of a pendulum depends only on its length and the acceleration due to gravity.
Set the pendulum swinging, with only a very small initial angular displacement. Measure the time taken to complete a certain number of oscillations, and then establish the average duration T of an oscillation. If the length of the pendulum is L, then gravitational field strength g is approximated by g = ~4pi2L/T2 This result derives from the modelling of the pendulum as a simple harmonic oscillator; for this to be a realistic model, the amplitude of oscillations must be small.
The time period of a pendulum will increase when taken to the top of a mountain. This is because the acceleration due to gravity decreases at higher altitudes, resulting in a longer time for the pendulum to complete each oscillation.
when oscillations taken energy of pendulum dissipates
Increases.
Actually, the time for a complete to-and-fro swing of a pendulum is called its period, which is the time taken to complete one full cycle of motion. The frequency of a pendulum is the number of cycles it completes in a given time, usually measured in hertz (cycles per second).