K(s+1) 2. (20 %) Let G(S)=52's +9) " in Figure 2. Plot the root locus. (Run...
9. Plot the root locus for the following closed-loop control systems. K (s -1) (ST2)(S+4) and H(s) = 1 (a) Gle)s+2)(s (b) G(s) = K (s + 1) and H (s)-1 A formula you may need for calculating the break-in point N'(o)D(o)-N(σ)D'(o)-0
B3. Sketch the root locus of the control system shown in the figure below K s(52 +65 +25)
1) Plot the root locus of the system whose characteristic equation is 2) Plot the root locus of the closed loop system whose open-loop transfer function is given as 2s + 2 G(S)H(S)+7s3 +10s2 3) Plot root locus of the closed-loop system for which feedforward transfer function is s + 1 G(S) s( ) St(s - and feedback transfer function is H(S)2 +8s +32
1) Plot the root locus of the system whose characteristic equation is 2) Plot the root...
(20) 2. Sketch the root-locus plot of a system shown in Fig. 2. Determine the origin and angles of asymptotes of the root loci. Find the points where root loci cross the imaginary axis and the value of K at the crossing points. G(S) = H(s)=1 s(s+1) (s?+ 4s +5) K R15 663 > 6) Fig. 2
3. Consider the system shown below. For this system. G(s) s(s+1)(s 2) H(s)1 We assume that the value of the gain K is nonnegative. Sketch the root locus plot and determine the K value such that the damping ratio of a pair of dominant complex-conjugate closed-loop poles is 0.5. Ri)1 C(s)
3. Consider the system shown below. For this system. G(s) s(s+1)(s 2) H(s)1 We assume that the value of the gain K is nonnegative. Sketch the root locus plot...
If the initial cone A E Re has a root locus plot started in Figure P1. Determine the following about the root locus determine a) the transfer f a) Of points A, B & C indicated on the real axis which are on the root locus? Ans b) the DC gain of b) How many zeros are there at infinity? Ans c) What angles do the infinity zero asymptote(s) make with the positive real axis? Ans d) Where do the...
For the unity feedback system, where G(s) =-s-2)(s-1) make an accurate plot of the root locus and find the following: (a) The breakaway and break-in points (b) The range of K to keep the system stable (c) The value of K that yields a stable system with critically damped second-order poles (d) The value of K that yields a stable system with a pair of second-order poles that have a damping ratio of 0.707
4. Consider the system described by the following block diagram. In this block diagram \(G(s)=\frac{1}{s+1}, C(z)=\frac{K}{1-z^{-}}\) are the system model and the digital controller.
(a) Sketch the root locus diagram of the system, \(C(z) G(z)\).
(b) Determine the range of gain \(K\) for the stability using the root locus.
(c) Determine the value of gain \(\mathrm{K}\) to get around \(10 \%\) maximum overshoot when a step input is applied using the root locus. Verify your results with plotting the closed...
% We can couple the design of gain on the root locus with a
% step-response simulation for the gain selected. We introduce
the command
% rlocus(G,K), which allows us to specify the range of gain, K,
for plotting the root
% locus. This command will help us smooth the usual root locus
plot by equivalently
% specifying more points via the argument, K. Notice that the
first root locus
% plotted without the argument K is not smooth. We...
[7] Sketch the root locus for the unity feedback system whose open loop transfer function is K G(s) Draw the root locus of the system with the gain K as a variable s(s+4) (s2+4s+20)' Determine asymptotes, centroid,, breakaway point, angle of departure, and the gain at which root locus crosses jw -axis.
[7] Sketch the root locus for the unity feedback system whose open loop transfer function is K G(s) Draw the root locus of the system with the gain...