Q8.5 For the following systems evaluate: GCL(s), where Y(s)-GCL(s)R(s) GE(s), where E(s)- GE(s)R(s) and Gd(s), where...
Question 4 A control system is shown in Figure 3, where Ge(s) is the controller, R(s) is the setpoint temperature, Tw is the measured water temperature, Ta is the ambient temperature and u(t) is the rate of heat supplied to the heater. The mathematical model of a simple thermal system consisting of an insulated tank of water is given by: dTW = c(1, - Iw) +u dt where c is the heat insulation coefficient. Heater Water R(s) Ta Gc/s) u(1)...
Determine which of the following is true for the transfer function below: C(s) 2(8+1) R(8) 8(8+2) = (Hint: Poles are the roots for the denominator of the transfer function denoted by "x" in the graph and Zeros are the roots for the numerator of the transfer function denoted by "o" in the graph) System is overdamped System is undamped jw الماز s-plane s-plane O -2 -2 -1 The transfer function of the system described by dy + 3 + 2y...
3. Evaluate each of the following for the universe 2 (a) 3rvy <y where r,yEZ (b) Vyar <y where r,y E (d) Vrvy yty where a,VEZ
Can you answer E please Problem S: For the feedback control system with H)1 and Ge()Ge) -(2 (s+2)2 a) (5 points) What is the closed loop transfer function? b) (5 points) What are the poles of the closed-loop transfer function? c) (10 points) Find the settling time via the 5% criterion (t,-(h) d) (10 points) Compute the steady-state error corresponding to a unit step input. e) (10 points) We want to design the system such that t, 1sec and the...
4. (10 points) Two feedback systems are shown in Figure4 R(s)+ s +4 s-1 R(s) + Y(s) 2 Figure 4: (a) (5 points) Evaluate the closed-loop transfer functions H, and H, for each system. (b) (5 points) Compare the sensitivities of the two systems with respect to the param- eter Ki for the nominal values of K K21.
Tools Full I-SCALFLON GRAPH.pdf Adobe Reader Wed Help 2/2 139% pen Ge(s) Y(s) R(s) Gj(s) G (s) G,(s) N(s) H(s) H2(s) Fig. Q2 a) Draw the equivalent SFG. Y(S) Y(S) R(S) IN(S)=0 N(S) IR(S)-0 e) Express Y(s) in terms of Rs) and Ns) when both inputs are applied simultaneonsly. b) Apply the gain formula to determine the transfer function Olo-o and 10- e "OSHIBA
b) i. Using e-8 definition show that f is continuous at (0,0), where f(x,y) = {aš sin () + yś sin () if xy + 0 242ADES if xy = 0 ii. Prove that every linear transformation T:R" - R" is continuous on R". iii. Let f:R" → R and a ER" Define Dis (a), the i-th partial derivative of f at a, 1 sisn. Determine whether the partial derivatives of f exist at (0,0) for the following function. In...
Consider the automobile cruise-control system shown below: Engine ActuatorCarburetor 0.833 and load 40 3s +1 Compensator R(s)E(s) Ge(s) s +1 -t e(t) Sensor 0.03 1) Derive the closed-loop transfer function of V(s)/R(s) when Gc(s)-1 2) Derive the closed-loop transfer function of E(s)/R(s) when Ge(s)-1 3) Plot the time history of the error e(t) of the closed-loop system when r(t) is a unit step input. 4) Plot the root-loci of the uncompensated system (when Gc(s)-1). Mark the closed-loop complex poles on...
Evaluate the following: where S-( (z, y) є R2 : 0 ST/2,0 < y ST/2). (a) Jls (cosz-s (b) fdl where y is the line segment from (2,-1,3) to (0, 1, 4) and f (x,y,z)-y+2 sin y) dA 3 marks 3 marks (c) Jc F dr where C is the unit circle centred at the origin, traversed once anticlockwise and F R2R2 is given by F(r,y)- (x2.x + y) 3 marks JJR eVEdA where R is the region enclosed by...
(,y,) dS, where f(,y,) = z'yz2 and S is the part ys 4 1. Parametrize, but do not evaluate, +y of the graph of z over the rectangle -2 S rs3 and 0 2. Parametrize, but do not evaluate, F.n dS, where F (y,-r,z) and S is the sphere of radius 2 centered at the origin. Math 224 3. Calculate le ayz dS where S is the part of the cone parametrized by 0sus1,0svs r(u, v)(ucos v, usin v, u),...