b Q1: The motion of the simple pendulum can be approximated by the simple harmonic motion (SHM)for small oscillations amplitude. In the SHM, the period does not depend on the amplitude of theoscillation. So, one can also say that the period of the simple pendulum is, roughly, independent of theamplitude, as long as the amplitude is "small". For larger amplitudes, the approximation becomes crudeand the period considerably deviates from the SHM period. One can obtain different expressions for thesimple pendulum period that differ in their accuracy in estimating the "true" period of the system. Someof them are listed below (assuming the length of the pendulum `= 9.8 m):To = 27,A?1+16T1 = 2727T2 =VI- A²/8',where A is the amplitude of the oscillations. Clearly, To above gives the approximated SHM period.The exact period of the simple pendulum can be expressed as*/24T =duV1– sin°(4) sin² u(a) Evaluate T1. T2 and T for a simple pendulum that starts from rest with an initial angulardisplacement of 0o = 1', 10' and 20'. Compare your results with each other and with the SHMperiod. What is your comment?(b) If you tolerate a deviation of no more than 1% between the estimated period and the true one,what is the maximum initial angular displacement(s) that the pendulum can have so that itsperiod can be adequately approximated by To. T1 or T2?(c) (Optional): Plot To. T1, T2 and T as a function of A for amplitudes between 0 and 1/2 and discussyour results.

from excel spreadsheet we obtain the graph of T2 vs length l.and also obtain the equation for the…

Q1:The motion of the simple pendulum can be approximated by the simple harmonic motion (S! or small oscillations amplitude. In the SHM, the period does not depend on the amplitude of scillation. So, one can also say that the period of the simple pendulum is, roughly, independent of mplitude, as long as the amplitude is "small". For larger amplitudes, the approximation becomes cr nd the period considerably deviates from the SHM period. One can obtain different expressions for mple pendulum period that differ in their accuracy in estimating the "true" period of the system. S them are listed below (assuming the length of the pendulum `= 9.8 m): To = 27, T = 27 16 27 T2 = 1 – Aª /8'. here A is the amplitude of the oscillations. Clearly. To above gives the approximated SHM period. The exact period of the simple pendulum can be expressed as /2 4 T du sin°(4) sin² u

Q1:The motion of the simple pendulum can be approximated by the simple harmonic motion (S! or small oscillations amplitude. In the SHM, the period does not depend on the amplitude of scillation. So, one can also say that the period of the simple pendulum is, roughly, independent of mplitude, as long as the amplitude is "small". For larger amplitudes, the approximation becomes cr nd the period considerably deviates from the SHM period. One can obtain different expressions for mple pendulum period that differ in their accuracy in estimating the "true" period of the system. S them are listed below (assuming the length of the pendulum `= 9.8 m): To = 27, T = 27 16 27 T2 = 1 – Aª /8'. here A is the amplitude of the oscillations. Clearly. To above gives the approximated SHM period. The exact period of the simple pendulum can be expressed as /2 4 T du sin°(4) sin² u

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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