Based on the response curve, answer the following questions: (a) What can be said about the order and damping of the system? (b) Show that the damping ratio 3 = 0.4699 and natural frequency wn = 1.7174 rad/s. (c) Write the transfer function G (s) for this system in standard form. (d) Obtain the time-domain equation describing the motion of the mass shown in Figure 2. Hint: A plot of your equation obtained in part (d) should be identical to the step response in Figure 2. You are not required to provide this plot.

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Must answer all the four questions. Dont attempt partially. Solve fully otherwise dont attempt it. Otherwise i will dislike your answer. 

Q3. A single-DOF translating spring-mass-damper system with unknown properties is subjected to a
unit-step input and the first seven seconds of the corresponding system response is recorded (shown in
Figure 2).
1.2
1
0.8
Peak value: 1.1878
0.6
Peak time: 2.0723 sec
0.4
0.2
1
2
3
4
6 7
Time (seconds)
Figure 2. Step response of a single-DOF translating spring-mass-damper system.
Displacement of mass
Transcribed Image Text:Q3. A single-DOF translating spring-mass-damper system with unknown properties is subjected to a unit-step input and the first seven seconds of the corresponding system response is recorded (shown in Figure 2). 1.2 1 0.8 Peak value: 1.1878 0.6 Peak time: 2.0723 sec 0.4 0.2 1 2 3 4 6 7 Time (seconds) Figure 2. Step response of a single-DOF translating spring-mass-damper system. Displacement of mass
Based on the response curve, answer the following questions:
(a) What can be said about the order and damping of the system?
(b) Show that the damping ratio 3 = 0.4699 and natural frequency wn = 1.7174 rad/s.
(c) Write the transfer function G(s) for this system in standard form.
(d) Obtain the time-domain equation describing the motion of the mass shown in Figure 2.
Hint: A plot of your equation obtained in part (d) should be identical to the step response in Figure 2.
You are not required to provide this plot.
Transcribed Image Text:Based on the response curve, answer the following questions: (a) What can be said about the order and damping of the system? (b) Show that the damping ratio 3 = 0.4699 and natural frequency wn = 1.7174 rad/s. (c) Write the transfer function G(s) for this system in standard form. (d) Obtain the time-domain equation describing the motion of the mass shown in Figure 2. Hint: A plot of your equation obtained in part (d) should be identical to the step response in Figure 2. You are not required to provide this plot.
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