3-30. Figure 3P-30 shows the block diagram of a control system with conditional feedback. The transfer function Gp(s) denotes the controlled process, and Ge(s) and H(s) are the controller transfer functions. (a) Derive the transfer functions Y(s)/R(s) |-o and Y(s)/N(s) |-o Find Y(s)/R(s)|N=0 when Ge(s) - Gp(s). (b) Let Gp(s) - Ge(s) H(s) Find the output response y(1) when N(s)-0 and r(t)-u, (t). (c) With G,(s) and Ge(s) as given in part (b), select H(s) among the following choices such that when n(t)= u(t) and r(t) = 0, the steady-state value of y(t) is equal to zero. (There may be more than one answer.) 10 s(s+1) 10(s + 1) 8+2 100 (5+1)(s+5) H(s) = 10 (8+1)(s+2) H(s) (n = positive integer) Select n. Keep in mind that the poles of the closed-loop transfer function must all be in the left-half s-plane for the final-value theorem to be valid.
3-30. Figure 3P-30 shows the block diagram of a control system with conditional feedback. The transfer function Gp(s) denotes the controlled process, and Ge(s) and H(s) are the controller transfer functions. (a) Derive the transfer functions Y(s)/R(s) |-o and Y(s)/N(s) |-o Find Y(s)/R(s)|N=0 when Ge(s) - Gp(s). (b) Let Gp(s) - Ge(s) H(s) Find the output response y(1) when N(s)-0 and r(t)-u, (t). (c) With G,(s) and Ge(s) as given in part (b), select H(s) among the following choices such that when n(t)= u(t) and r(t) = 0, the steady-state value of y(t) is equal to zero. (There may be more than one answer.) 10 s(s+1) 10(s + 1) 8+2 100 (5+1)(s+5) H(s) = 10 (8+1)(s+2) H(s) (n = positive integer) Select n. Keep in mind that the poles of the closed-loop transfer function must all be in the left-half s-plane for the final-value theorem to be valid.
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Publisher:Robert L. Boylestad
Chapter1: Introduction
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Question
PLEASE HELP
![R(s)
Figure 3P-30
H(s)
N(s)
Ge(s)
Y(s)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F5d6a01d3-82e5-4350-87dd-6f226ff184e6%2Fb4de905c-de9c-4746-a133-7b2c5bc34ffe%2Ft6xcil6_processed.jpeg&w=3840&q=75)
Transcribed Image Text:R(s)
Figure 3P-30
H(s)
N(s)
Ge(s)
Y(s)
![3-30. Figure 3P-30 shows the block diagram of a control system with conditional feedback. The
transfer function G,(s) denotes the controlled process, and Ge(s) and H(s) are the controller transfer
functions.
(a) Derive the transfer functions Y(s)/R(s) and Y(s)/N(s) |-o Find Y(s)/R(s)|N=0 when
Ge(s) = Gp(s).
(b) Let
H(s)
Gp(s) = Ge(s)
Find the output response y(1) when N(s) - 0 and r(t)-u, (t).
(c) With G,(s) and Ge(s) as given in part (b), select H(s) among the following choices such that
when n(t)= u(t) and r(t) = 0, the steady-state value of y(t) is equal to zero. (There may be more
than one answer.)
H(s) :
10
s(s+1)
10(s + 1)
8+2
100
(3+1)(5+5)
H(s) =
=
10
(8+1)(s+2)
K
= (n= positive integer) Select n.
Keep in mind that the poles of the closed-loop transfer function must all be in the left-half
s-plane for the final-value theorem to be valid.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F5d6a01d3-82e5-4350-87dd-6f226ff184e6%2Fb4de905c-de9c-4746-a133-7b2c5bc34ffe%2F65yeufs_processed.jpeg&w=3840&q=75)
Transcribed Image Text:3-30. Figure 3P-30 shows the block diagram of a control system with conditional feedback. The
transfer function G,(s) denotes the controlled process, and Ge(s) and H(s) are the controller transfer
functions.
(a) Derive the transfer functions Y(s)/R(s) and Y(s)/N(s) |-o Find Y(s)/R(s)|N=0 when
Ge(s) = Gp(s).
(b) Let
H(s)
Gp(s) = Ge(s)
Find the output response y(1) when N(s) - 0 and r(t)-u, (t).
(c) With G,(s) and Ge(s) as given in part (b), select H(s) among the following choices such that
when n(t)= u(t) and r(t) = 0, the steady-state value of y(t) is equal to zero. (There may be more
than one answer.)
H(s) :
10
s(s+1)
10(s + 1)
8+2
100
(3+1)(5+5)
H(s) =
=
10
(8+1)(s+2)
K
= (n= positive integer) Select n.
Keep in mind that the poles of the closed-loop transfer function must all be in the left-half
s-plane for the final-value theorem to be valid.
Expert Solution
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Step 1
This question contains a block diagram with conditional feedback with transfer function Gp(s) for the controlled process, Gc(s) and H(s) are controller transfer functions. It involves finding of output response y(t) for different inputs n(t) and r(t) given.
Detailed handwritten solution provided in Step 2.
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