MATLAB
CODE:
t=0:0.01:10;
x1 = t>=2;
x2 = t>=4;
us=x1-x2;
h=exp(-t)-exp(-2*t);
y=conv(h,us);
plot(y);
grid();
xlabel('t');
ylabel('y(t)')

For all the requested figures below, use a time resolution of 10ms for your time axis...
Please read the instructions carefully and show me the matlab
code in detail and the graph
For all the questions below, whenever necessary, use a time resolution of 10ms for your time axis and plot in the range t 10,10]. Matlab hint for time axis: t [0:0.01:101 Remember your script should be self-sufficient and run without any errors to receive any points. Question 1. Find the impulse response h(t) for the LTIC system (1) provided below, using Matlab's built in...
use MATLAB and PLZ comment the code so that it is easy to
understand
Implement the following series of sinusoidal signals in MATLAB: 1 sin(kt) where N 30 k=1 x(t) k 1 Write a MATLAB script which does the following steps First define and plot signal sin(t) for 0 St s 3Twhere T is the fundamental period of this signal The signal you just implemented is x(t) with N 1 a. Then modify your code to be able to define...
For Problems (9-10), use the continuous-time system depicted below which converts the input signal X(t) into the corresponding output signal y(t) = {x()} = 10 x(t) u(t - 3). system y(t) = $ { x(t) } = 10 x(t) · u(t – 3). (9) (10 points) (a) Compute the formula for the Ramp Response, yramp(t) = { r(t)}. (b) Plot the Ramp Response. Label both axes. Give key values of time and amplitude. (10) (10 points) (a) Compute the formula...
Problem 2 (Spectrum of a rectangular signal): In this problem, the amplitude spectrum of the signal 1 or Ot 2 ms x(t)- 0 otherwise is to be analysed (b) Numerical calculation of the spectrum: (i) Use Matlab to generate and plot a vector containing the sample values of the rectangular signal defined in (2) sampled at f 8kHz. Choose the number N of sample values so that it is a power of 2 and that the signal duration is at...
Now use MATLAB to generate and plot 15seconds of this signal
in the time-domain.Use the fft() function to find the fourier
transform of this signal and plot its magnitude spectrum
School of Engineering Task 3 - The Fourier Transform: Scaling property Exercise: Let's take a look now at using the Fourier transform on aperiodic signals. Consider the real exponential signal from the discharging capacitor in tas 3 of laboratory 1 which was found to be: You(t)=e"u(t) Begin by calculating manually...
Need help with A-C
HWP 06.03: A "parabolically oscillating voltage of half-period T" is defined by: o)-A(2) V(t) = A if t falls into the so-called "nth period interval", defined by: where n is an integer Note that for any given time t, there is always exactly only one integer n so that t falls into the nth period interval. The nth period intervals cover the entire real t-axis contiguously and without overlap, for n - 0,1, 2, +3 (a)...
I ONLY NEED B AND C
HWP 06.03: A "parabolically oscillating voltage of half-period T" is defined by: o)-A(2) V(t) = A if t falls into the so-called "nth period interval", defined by: where n is an integer Note that for any given time t, there is always exactly only one integer n so that t falls into the nth period interval. The nth period intervals cover the entire real t-axis contiguously and without overlap, for n - 0,1, 2,...
1. Create the following signals, f1, f2 in time domain. t = 0 to 1 second. f1(t) = 8 sin (2 *pi*80*t); f2(t) = 4 cos (2*pi*240*t) Define any assumptions you make to generate the signals. 2. Plot the two graphs as sub plots with appropriate lables in x axis (time), y axis, title etc. 3. Generate the following signal f3 = f1 + f2; 4. Plot as sub plot in (2). 5. Compute the fourier transform of this signal,...
X(s) U(s) s2+ 10s+625 625 b. Plot/find the time response of this system using MATLAB when subjected to the input signal in Figure 2. Assume t -O, t2 -10-9, and A - 10 Hint: What can the input signal be approximated as? Use the approximation. Plot the response for at least 1 second. 1) Provide the plot. You do not need to print an answer to the hint. 0 Figure 2. Input u(t) c. Redo part b using the transfer...
Its related to MATLAB
Generate a continuous-time signal z(t)-cos(2π 10t + 5) + cos(2π30t + 5). You may use the part of the followings. a >>t0:0.001:1; >plot (t, x_t) b. Generate a discrete-time signal x[n] = (1/4)(u[n]-u[n-4). You may use the part of the followings >>a_n-ones (1, 4) s> b_nzeros (1, 7) >> stem(n, x n)
Generate a continuous-time signal z(t)-cos(2π 10t + 5) + cos(2π30t + 5). You may use the part of the followings. a >>t0:0.001:1; >plot (t,...