Q1: For the system shown in figure (1) with unit step input.(1) Determine the value of K when the damping ratio (=0.6).(2) Find the steady state error when the input (r(t)=0.2+0.001t ).R(s) +C(s)44s(s +2)Figure (1)KsQ2: For the system shown in figure (2) with derivative feedback.(1) Determine the value of (K, and A) when the value of damping ratio(C-0.5) and steady state error for ramp input (es0.1).(2) Obtain rise time, peak time, and settling time for step input.R(s) +C(s)1As(s +2)Figure (2)K, sQ3: For the system shown in figure (3) with unit step input.(1) Determine the value of K when the damping ratio (-0.6).(2) Obtain rise time, peak time, and settling time.(3) Find the steady state error when the input (r(t)=1+0.0002t ).R(s) +C(s)86.s(s +2)Figure (3)KsQ4: For the system shown in figure (4) with derivative feedback. Determine the value of(A and K) when the value of damping ratio (-0.7) and steady state error for step input(ess=0.02).R(s) +C(s)8As2 +2s +3Figure (4)Ks

Answered: Image /qna-images/answer/efb3d0d1-bb11-4922-8176-42c6f215623e.jpg

Q1: For the system shown in figure (1) with unit step input. (1) Determine the value of K when the damping ratio (=0.6). (2) Find the steady state error when the input (r(t)=0.2+0.001t ). %3D R(s) + C(s) 4 4 s(s +2) Figure (1) Ks

Q1: For the system shown in figure (1) with unit step input. (1) Determine the value of K when the damping ratio (=0.6). (2) Find the steady state error when the input (r(t)=0.2+0.001t ). %3D R(s) + C(s) 4 4 s(s +2) Figure (1) Ks

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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