![G(s)=[\frac{s^{2}}{s^{2}+3s+2} \ \ \ \frac{(s+1)}{(s+2)(s+3)}]](http://img.homeworklib.com/questions/081af5f0-421d-11eb-9f50-afaec232e4d0.png?x-oss-process=image/resize,w_560)























Find a minimal representation for the system G (s) s2 = [ s+1 (s+2)(8+3) $2+38+2 1
2. Find the state space representation of the system represented by the following transfer function: (s +1.2) (s 15.8) (s +23) s(S 1.3) (s +7.2) (s + 47) G(s)- 3. Find the transfer function of the system with the following state space representation: 1 3.2 1.6 1(01) [-1 e) -7.4 2.4 -9.1l(O You may use your calculator, Matlab, or calculate by hand to find the following transfer functions: G1(s) 0,() R(S) G3(s) s) R(
Problem 2: Find the state space representation in phase-variable form for the following system: (52+ s+8) T(s) (s +2)(s25s +1) 1
R(s)) C(s) 1. For the unity feedback system shown above where K(s2 +2s +5) G(S)2(s +3) a) b) c) Find the system type. What error can be expected for an input of 10u(t)? What error can be expected for an input of 10tu(t)?
8 The transfer function of a linear time invariant system is given as G(s) = 10/(S2 + 10s + 10). The steady state value of the output of the system for step input (R(s) = 1/s^2) will be: DS (3 Points) 100 0.1 O infinity None of them 0.01 1 10
Find the final value of the system corresponding to Y(s) = 3(s + 2) s(s2 + 25 + 10)
- 4. Full State Feedback and Observer Design Consider the plant s + 1 G(s)- (s + a(s +8(s +10) where a-1. a) Find a convenient state space representation of model G(s) . b) Using place design a controller for the system that puts the poles at -1 and-2 +-2 . c) Using place design an observer with poles at-10,-11 and-12 d) Simulate the states with the state estimates overlaid e)Find a state space representation of the closed loop system...
8.3. For the transfer function H(s) = find s2+2' (a) an uncontrollable realization, (b) an unobservable realization, (c) an uncontrollable and unobservable realization, (d) a minimal realization
8.3. For the transfer function H(s) = find s2+2' (a) an uncontrollable realization, (b) an unobservable realization, (c) an uncontrollable and unobservable realization, (d) a minimal realization
QUESTION 2: Again, for the feedback control system from Question 1, Let G(S) 3 +27 s2 +218 s+504 s2 +6s+34 Part a) What are the poles and zeroes of G(s)? Part b) Plot the root-locus using RLOCUS.M - Refer to the MATLAB notes in the back of this handout. - Be sure to indicate the direction of "increasing K" on each branch Part c) Comment on this root-locus plot How it pertains to poles and zeros of G(s), etc. Are...
G(s) = K(s + 2) (s2 + 9)/(s-2)(s+6) For the system above, find the following through calculations: a) Sketch the root locus by hand, labeling all relevant points on your plot. a. Open Loop Poles and Zeros. b. Centroid (if there are any) c. Asymptotes (if there are any) d. Break away points (if there are any). e. Location where the poles cross into the Right Half Plane b) Discuss the stability of the system as the gain changes (i.e. does the system ever become unstable?). Find the...
R(S) C(s) G(s) Figure P3 G(S) K(s2 – 2s + 2) s(s + 1)(8 +2) Problem 4) (25 points) Consider the same unity feedback control system given in Figure P3 and do the following: a. Determine the system type (type 0, type 1, type 2, etc.) and justify it. (05 points) b. Suppose that 10% maximum overshoot is required as a transient response specification. Find the steady-state error for this P-controlled system, where K = 0.24 for a unit step...