MATLAB:
clc;
clear all;
close all;
%Define g(t)
tt=-1:0.001:1;T=3
gg=(tt.^2).*(tt>=-1&tt<=1)
t=linspace(-T,T,3*length(tt))
g=[gg gg gg];
subplot(211)
plot(t,g,'linewidth',3,'b');grid;xlabel('t');
ylabel('g(t)');title('g(t)=t^2');
%Exponential fourier series
T0=2;w0=2*pi/T0;N=5;
k=0;
for n=-N:1:N
k=k+1;
c(k)=(trapz(tt,gg.*exp(-j*n*w0*tt)));
end
c=c/T0
%To plot fourier series of g(t)
k=0;n=-N:1:N
for t=t
k=k+1;
gN(k)=sum(c.*(exp(j*n*w0*t)));
end
t=linspace(-T,T,3*length(tt))
subplot(212)
plot(t,gN,'m','linewidth',3)
title('Fourier series approximation of g(t)')
xlabel('t')
ylabel('gN(t)')
grid on;
Plot:
Please give positive rating if you understood the answer thank you..please it's important to me
solve it using matlab 2.7-1 (a) Sketch the signal g(t) = 12 and find the exponential...
Problem 2: For the signal g(t) t, a) (25 points) Find the exponential Fourier series to represent g(t) over the interval (-π, π). Sketch the spectra (amplitude and phase of Fourier series coefficients). b) (25 points) Find the average power of g(t) within interval (- ,r). Using this result and given that Σ00.-6, verify the Parseval's theorem
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problem E
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Sketch the signal f(t) = e^(-t)u(t) for all t and find the EFS
phi(t) to represent f(t) over the interval (-3,3). Sketch phi(t)
for all t.
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can anyone solve this question for me please!
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