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100 Consider the following LTI system, 5, and wo = 2000π rad/sec. where, Q a) Use MATLAB to determine magnitude response and
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Answer #1

a) matlab code:

clc;

clear all;

s=tf('s');

q=5;

w0=2000*pi;

p=w0/q;

g=p*s/(s^2+p*s+w0^2);

margin(g); % magnitude and phase response using bode

Bode Diagram Gm- Inf, Pm -180 deg (at 6.280+03 rad/s) 10 20 35 45 45 10 10% Frequency (rads)b) This is a band pass filter

c)C) 2O 0032 OwE loc H (Su)-d)

simulink:

Function Block Parameters: Gc3 Transfer Fcn The numerator coefficient can be a vector or matrix expression. The denominator c

Source Block Parameters: Sine Wave output a sine wave Olt) Amp Sin(Freq*t+Phase) + Bias Sine type determines the computationa

1257s den(s) Gc3 Sine Wave Scope1output:

File Tools View Simulation Help 08 04 02 Ready T-10.000f)

Source Block Parameters: Sine Wave Sine Wave Output a sine wave Olt) Amp Sin(Freq*t+Phase) Bias Sine type determines the comp

1257s den(s) Gc3 Sine Wave Scope1File Tools View Simulation Help Ready T:10.000

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