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The equation of motion of a mechanical system is 4+10y = 120g (t) where g(t) is the stimulus or input applied to the system and y(t) is its output. Assume the system is quiescent. i. ii. iii. Find the transfer function of the system and the pole. If a step of unit height is applied at the input, in the Laplace domain, find the system output, y(s), using partial fractions. Hence determine the time domain output of the system, y(t).

The equation of motion of a mechanical system is 4+10y = 120g (t) where g(t) is the stimulus or input applied to the system and y(t) is its output. Assume the system is quiescent. i. ii. iii. Find the transfer function of the system and the pole. If a step of unit height is applied at the input, in the Laplace domain, find the system output, y(s), using partial fractions. Hence determine the time domain output of the system, y(t).

Elements Of Electromagnetics
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
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10. The equation of motion of a mechanical system is 4 dt +10y = 120g (t) where g(t) is the stimulus or input applied to the system and y(t) is its output. Assume the system is quiescent. i. ii. iii. Find the transfer function of the system and the pole. If a step of unit height is applied at the input, in the Laplace domain, find the system output, y(s), using partial fractions. Hence determine the time domain output of the system, y(t).
Transcribed Image Text:10. The equation of motion of a mechanical system is 4 dt +10y = 120g (t) where g(t) is the stimulus or input applied to the system and y(t) is its output. Assume the system is quiescent. i. ii. iii. Find the transfer function of the system and the pole. If a step of unit height is applied at the input, in the Laplace domain, find the system output, y(s), using partial fractions. Hence determine the time domain output of the system, y(t).
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