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A real continuous-time LTI system is given by the block diagram below. E(s) G(s) R(s) Y(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). К (s — 5) G(s) = s2 – 4s + 29 where K is a positive scaling factor.

A real continuous-time LTI system is given by the block diagram below. E(s) G(s) R(s) Y(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). К (s — 5) G(s) = s2 – 4s + 29 where K is a positive scaling factor.

Introductory Circuit Analysis (13th Edition)
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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Given G(s) in the picture below,

Determine:

1. What is the transfer function H(s) = [Y(s)] / [R(s)] in terms of K?

2. What will happen to the poles of H(s) as K increases?

3. Determine the value of K that will make the system marginally stable.

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). K(s – 5) G(s) = s2 – 4s + 29 where K is a positive scaling factor.
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). K(s – 5) G(s) = s2 – 4s + 29 where K is a positive scaling factor.
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