5) a) Simplify by using connecting rules andY (s) E(s)R(s)' R(s)then find the transfer functionsof the system shown in Fig. 2:et)x3S+2s+3-2-3-1,Fig. 2: Feedback Systemb) Find the y() using the final valuetheorem (when r(t) is the unit step function).

Answered: Image /qna-images/answer/0edf2bdc-898f-45f1-99e8-b415917a0fdb.jpg

5) a) Simplify by using connecting rules and Y (s) E(s) R(s)' R(s) then find the transfer functions of the system shown in Fig. 2: et) S+2 Fig. 2: Feedback System b) Find the y(∞) using the final value theorem (when r(t) is the unit step function).

5) a) Simplify by using connecting rules and Y (s) E(s) R(s)' R(s) then find the transfer functions of the system shown in Fig. 2: et) S+2 Fig. 2: Feedback System b) Find the y(∞) using the final value theorem (when r(t) is the unit step function).

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...

See similar textbooks

Similar questions

1. A feedback control system is shown in Fig. 1. The transfer function of the plan G(s) - s(s+9) Y(S) R(s) 2 G(s) =- s(s+9) K Fig. 1. Feedback system for Question 1 Determine the closed-loop transfer function T(s)- Y(s)/R(s) if K=10.
I need the answer as soon as possible
The block diagram of feedback control system shown in fig.s below find the transfer function C(s)/R(s). a) 3 R(s) 10 C(s) S+5 sis + 1) 0.5s b) R(s) Cs) 25
A system with unity feedback has a open loop transfer function 80(1 + sta) Go:(s) = %3D s2 + 8s + 80 Plot the root locus of the characteristic equation witht being the variable.
Solve this question correctly and carefully
Derive an expression for the input impedance Zin(s) of the noninverting ampliﬁer assuming that the op amp has a transfer function given by Eq. A(s) = AoωB / s + ωB = ωT / s + ωB and an input resistance Rid .
it already has the answer. I just need to some details and explanation
B-6-14. Consider the unity-feedback system whose feed- forward transfer function is G(s) F K s(s+ 1) The constant-gain locus for the system for a given value of K is defined by the following equation: K s(s + 1) = 1 Show that the constant-gain loci for 0 ≤ K ≤ ∞ may be given by [o(o + 1) + w²]²+ w² = K² Sketch the constant-gain loci for K = 1, 2, 5, 10, and 20 on the s plane.
The unit-step response of a unity feedback system with open loop transfer function is shown in the figure below: G(s)= K (s+1)(s+2) 1 0.75 0.5 0.25 1 3 The value of Kis A 0.5 B 2 C 4 D 6 response 2 time(s) A
A unity feedback system has the loop transfer function K Ge (s) G (s) s (s + 2) (s + 5) Please find the following 1. the breakaway point on the real axis and the gain K for this point, 2. the gain and the roots when two roots lie on the imaginary axis 3. the roots when K = 6.
The open loop transfer function of the unity negative feedback system is: K G(s) = s(s + 3)(s² + s + 1) Determine the range of K such that the closed loop system will be stable.
Electrical Engineering For a unit feedback system having the following gain functions: G(s) Ks - 4.21) s² (2 s +5.7) 2 (1) Draw the root trajectory. (2) Find the value of the gain K in which all three roots are real and have intermediate roots. (3) When it becomes as in (2), find the value of its root. -thanks you very much for the help ~~