10- To enter the transfer functions G(s)=a) G= th(2, [3,2])b)c)d)G(s) TH (2, [2, 3])G= tf (2, [3,2])G(s)= TF(2, [2, 3])23s+2c) A marginally stable responsed) A marginally unstable responseto Matlab command use:3s+111- To enter the transfer function g(s)= $2+35+2 ,can be usea)num=[3, 1]; den= [1, 3, 2]; g-tf (den, num)num=[3, 1]; den=[1, 3, 2]; g=tf (num, den)b)c)num=[3; 1]; den=[1, 3, 2]; g=tf (den, num)d) num=(3, 1); den=(1, 3; 2); g-tf (num, den)12- What is the output of the code (>>p=[0 1]; q=[ 1 -1 0]; step(p,q) )a) An unstable responseb) A stable response(s+1)

Q10) Option C G=tf (2,[3,2]) is correct the correct way of transfer function = num=2 and den=[3,2]…

2 3s+2 10- To enter the transfer functions G(s)= to Matlab command use: a) G= th(2, [3, 2]) b) G(s)= TH (2, [2, 3]) c) G= tf (2, [3, 2]) d) G(s)= TF(2, [2, 3]) 3s+1 11- To enter the transfer function g(s)= $2+3s+2 ,can be use b) a) num=[3, 1]; den=[1, 3, 2]; g=tf (den, num) num=[3, 1]; den=[1, 3, 2]; g=tf (num, den) c) num=[3; 1]; den=[1, 3, 2]; g=tf (den, num) num=(3, 1); den=(1, 3; 2); g=tf (num, den) d) 12- What is the output of the code (>>p=[0 1]; q=[ 1 -1 0]; step(p,q)) a) An unstable response b) A stable response c) A marginally stable response d) A marginally unstable response

2 3s+2 10- To enter the transfer functions G(s)= to Matlab command use: a) G= th(2, [3, 2]) b) G(s)= TH (2, [2, 3]) c) G= tf (2, [3, 2]) d) G(s)= TF(2, [2, 3]) 3s+1 11- To enter the transfer function g(s)= $2+3s+2 ,can be use b) a) num=[3, 1]; den=[1, 3, 2]; g=tf (den, num) num=[3, 1]; den=[1, 3, 2]; g=tf (num, den) c) num=[3; 1]; den=[1, 3, 2]; g=tf (den, num) num=(3, 1); den=(1, 3; 2); g=tf (num, den) d) 12- What is the output of the code (>>p=[0 1]; q=[ 1 -1 0]; step(p,q)) a) An unstable response b) A stable response c) A marginally stable response d) A marginally unstable response

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

See similar textbooks

Similar questions

7- Name the functions used, for multiplication of two polynomials p1, and p2 in MATLAB. a) convolution (p1, p2) b) multiply(p1, p2) c) conv(p1, p2) d) mult (p1, p2) 8- The Transfer Function of an L.T.I. system is entered as: a) trans_func(num, den) b) transferfunction (num, den) c) tf (num, den ) d) TF(num, den ) 9. What is the nature of the arrangement of the coefficients to store the expression y = 3s5+ s² + 6 in MATLAB? a) y=[3,0,0,1,0,6] b) y=[3,1,6] c) y=[3;0;0;1;0;6] d) y=[6,0,1,0,0,3] 10. To enter the transfer functions G(s): 2 to Matlah command use
2) Given the following Matlab commands x = [8 9 11; 7 10 5] [a, b] = max (x) o What the result of the command [a, b] = max (x) ? What is a? o What is b?
Remaining Time: 46 minutes, 46 seconds. V Question Completion Status: A Moving to another question will save this response. Question 16 ets Which system of equations corresponds to the following augmented matrix? [1 31 1 Lo -1 b +c = 4 x + 3y = 6; -x - y = -4 -1 41 A. a + 2b = 3; b + 3c = 6; B. x + 2z = 3; C. u + 2v = 3w + 3; v + 3w = 6; v+w = -4 st D.r + 2s = 3; s + 3t = 6; -s - t = 4 O A. OC. O B. O D. A Moving to another question will save this response. «< Question earch
Q3) For the Fig. Q3 shown below: 1- Assign the coordinate frames base on D-H representation. 2- Fill out the parameters table. 3- Write all the T matrices. 4- Write 9T in terms of T matrices. d2 Fig.Q3 Given: The general form of the Forward Kinematics (Link Transformation matrix): 0. -s6; s0;ca;-1 c0,ca;-1 -sa;-1 -SC;-1di. ca;-1 ce; ai-1 i-lT = s0; sa;–1 c0;sa;–1 ca-1 ca;-1d;
200 OOOD O Subject Date: Q1/Find the domain P the function 2. Y3DIn(2x+X-6-6)
Given the trasnfer function G(s) numerator and denominator coefficients for Matlab code should be: O s³+2s+1 2s4+2s²+1' the num= [1 0 2 1] and den=[2 020 1] O num=[1 2 1] and den=[2 0 2 1 1] O num=[1 2 1] and den=[2 2 1] O num=[1 0 2 1] and den=[2 2 0 1]
03/A heating system shown in figure 1; the mathematical model of this system is written as: Ct, = q - 41 C†2 = 91 - 92 Here 91 = T-T2 91 = R1 T-To R2 Derive the transfer funetion for the system assuming q, is the input and q; is the output, and then draw the block diagram which describes the system graphically. Hint: C, C2, R1. Rz are constants. T. Outside Air inside the oven 92 R2 Figure I T
21. The programmer uses three-point method for UT[2] setup for a sharp-tip pointer. If the programmer recorded each of three-points by precisely contacting the sharp-tip to the tip of the stationary reference pointer on the table, then (a) UT[2] setup is accurate (b) UT[2] setup is not accurate (c) the accuracy of UT[2] setup is still uncertain 22. User frame UF[3] is accurately set up on the part reference surface which is unparallel to the surface where the robot is mounted. To jog the robot TCP to move perpendicularly to the part reference surface, the programmer (a) needs to select World jogging coordinate system (b) needs to activate UF[3] and select User Frame jogging coordinate system
4. Consider a batch process of the conveyor oven illustrated in Figure 1. List all input and output process variables involved (binary and continuous), and draw the block diagram for the automation of the conveyor oven temperature and the connection schematic of the programmable logic control interface with process field devices. Motorized circulating fans Airflow (m/s) Electrical heating elements Heater voltage (volt) ww. Thermostat Thermostat ("C) ("C) 111111tt, Cake Cake Cake Cake Cake Cake II Travel direction Screw conveyor Stepping motor Figure 1: Cake conveyor oven.
INSTRUCTIONS: Solve the following problem by manually applying the finite element method, following these steps: Pre-processing: Geometry identification. Material properties identification. Load identification. Boundary condition identification. Development of the connectivity matrix for nodes and elements. Processing: Calculation of local stiffness matrices. Assembly of the global stiffness matrix. Assembly of the global force matrix (if required). Application of boundary conditions. Resolution of the system of equations. Derivation of the complete displacement vector (u). Post-processing: Reaction forces calculation. Stress analysis. Problem Statement: the truss nodes and elements (in parentheses) are already numbered. The areas (are in cm^2 ) are underlined. members are made of structural steel, modulus of elasticity is (E) of 20×10^6 N/cm^2 . the lengths are given in cm.
! a. Required information Use the following transfer functions to find the steady-state response yss(t) to the given input function f(t). NOTE: This is a multi-part question. Once an answer is submitted, you will be unable to return to this part. T(s) Y(s) 6 f(t) F(s) s(s²+10s+100) ⁹ The steady-state response for the given function is yss(t) = = = = 6 sin 9t sin(9t-2.93).
Make a matlab code