A real continuous-time LTI system is given by the block diagram below. R(s) + E(s) Y(s) G(s) The input is denoted by R(s) while the output is denoted by Y(s). The error function, E(s), is equal to the difference between the input and the output signals, E(s) = R(s) – Y(s). G(s : K(s – 5) s² – 4s + 29 where K is a positive scaling factor. 1.1. Determine the pole(s), zero(s), and region of convergence of the forward transfer func- tion G(s). 1.2. Sketch the pole-zero diagram of the forward transfer function G(s). Label all relevant points and the two axes properly. 1.3. Is G(s) stable? Explain. 1.4. Determine the transfer function H(s) = 0 in terms of K. R(s) 1.5. What will happen to the location of the poles of H(s) as K increases? 1.6. Determine the minimum value of K that will make the system (marginally) stable.

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A real continuous-time LTI system is given by the block diagram below.
R(s)
+
E(s)
Y(s)
G(s)
The input is denoted by R(s) while the output is denoted by Y(s). The error function, E(s),
is equal to the difference between the input and the output signals, E(s) = R(s) – Y(s).
G(s :
K(s – 5)
s² – 4s + 29
where K is a positive scaling factor.
1.1. Determine the pole(s), zero(s), and region of convergence of the forward transfer func-
tion G(s).
1.2. Sketch the pole-zero diagram of the forward transfer function G(s). Label all relevant
points and the two axes properly.
1.3. Is G(s) stable? Explain.
1.4. Determine the transfer function H(s) = 0 in terms of K.
R(s)
1.5. What will happen to the location of the poles of H(s) as K increases?
1.6. Determine the minimum value of K that will make the system (marginally) stable.
Transcribed Image Text:A real continuous-time LTI system is given by the block diagram below. R(s) + E(s) Y(s) G(s) The input is denoted by R(s) while the output is denoted by Y(s). The error function, E(s), is equal to the difference between the input and the output signals, E(s) = R(s) – Y(s). G(s : K(s – 5) s² – 4s + 29 where K is a positive scaling factor. 1.1. Determine the pole(s), zero(s), and region of convergence of the forward transfer func- tion G(s). 1.2. Sketch the pole-zero diagram of the forward transfer function G(s). Label all relevant points and the two axes properly. 1.3. Is G(s) stable? Explain. 1.4. Determine the transfer function H(s) = 0 in terms of K. R(s) 1.5. What will happen to the location of the poles of H(s) as K increases? 1.6. Determine the minimum value of K that will make the system (marginally) stable.
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