Homework Solution: Homework 1 Note: Please label your plots and add legend. Upload a single PDF file containing your…

    Could you please write the matlab code for these two problems thank you Homework 1 Note: Please label your plots and add legend. Upload a single PDF file containing your answers, MATLAB code and figures for both problems. Due Date: 09/12/2017, 2:30 PM Problem 1 The response of circuits containing resistors, inductors, and capacitors depends upon the relative values of the resistors and the way they are connected. An important intermediate quantity used in describing the response of such circuits is s. Depending on the values of R, L, and C, the values of s will be either both real values, a pair of complex values, or a duplicated value L = 100 mH C=1uF The equation that identifies the response of a series circuit shown above is (a) Determine the values of s for a resistance of 800 Ω. (b) Create a vector of values of R between 100 to 1000 Ω with a step size of 5, Evaluate s at all values of R. (c) Plot value of real and imaginary parts of s vs. R. (Hint: See help for MATLAB functions real and imag) (d) What is the minimum value of R that yields pure real value of s. (e) The resonant frequency of a series RLC circuit is given by Compute the resonant frequency of the above circuit.
    media%2Fe35%2Fe35e15b1-c340-4894-bd75-a6
    Homework 1 Note: Please label your plots and add legend. Upload a single PDF file containing your answers, MATLAB code and figures for both problems. Due Date: 09/12/2017, 2:30 PM Problem 1 The response of circuits containing resistors, inductors, and capacitors depends upon the relative values of the resistors and the way they are connected. An important intermediate quantity used in describing the response of such circuits is s. Depending on the values of R, L, and C, the values of s will be either both real values, a pair of complex values, or a duplicated value L = 100 mH C=1uF The equation that identifies the response of a series circuit shown above is (a) Determine the values of s for a resistance of 800 Ω. (b) Create a vector of values of R between 100 to 1000 Ω with a step size of 5, Evaluate s at all values of R. (c) Plot value of real and imaginary parts of s vs. R. (Hint: See help for MATLAB functions real and imag) (d) What is the minimum value of R that yields pure real value of s. (e) The resonant frequency of a series RLC circuit is given by Compute the resonant frequency of the above circuit.

    Expert Answer

     
    PROBLEM-1 (a) MATLAB CODE: R = 800;

    Could you delight transcribe the matlab statute restraint these brace examples felicitate you
    Homework 1 Note: Delight dedicate your plots and gather fable. Upload a individual PDF perfect containing your vindications, MATLAB statute and figures restraint twain examples. Due Date: 09/12/2017, 2:30 PM Example 1 The solution of tours containing resistors, inductors, and capacitors depends upon the referring-to estimates of the resistors and the restraintm they are conjoined. An weighty comprised part used in describing the solution of such tours is s. Depending on the estimates of R, L, and C, the estimates of s gain be either twain developed estimates, a span of intricate estimates, or a duplicated estimate L = 100 mH C=1uF The equation that identifies the solution of a order tour shown aloft is (a) Determine the estimates of s restraint a opposition of 800 Ω. (b) Create a vector of estimates of R among 100 to 1000 Ω with a plod extent of 5, Evaluate s at entire estimates of R. (c) Plot estimate of developed and unexistent talents of s vs. R. (Hint: See succor restraint MATLAB functions developed and imag) (d) What is the partiality estimate of R that yields chaste developed estimate of s. (e) The vibratory share of a order RLC tour is dedicated by Compute the vibratory share of the aloft tour.
    media%2Fe35%2Fe35e15b1-c340-4894-bd75-a6

    Homework 1 Note: Delight dedicate your plots and gather fable. Upload a individual PDF perfect containing your vindications, MATLAB statute and figures restraint twain examples. Due Date: 09/12/2017, 2:30 PM Example 1 The solution of tours containing resistors, inductors, and capacitors depends upon the referring-to estimates of the resistors and the restraintm they are conjoined. An weighty comprised part used in describing the solution of such tours is s. Depending on the estimates of R, L, and C, the estimates of s gain be either twain developed estimates, a span of intricate estimates, or a duplicated estimate L = 100 mH C=1uF The equation that identifies the solution of a order tour shown aloft is (a) Determine the estimates of s restraint a opposition of 800 Ω. (b) Create a vector of estimates of R among 100 to 1000 Ω with a plod extent of 5, Evaluate s at entire estimates of R. (c) Plot estimate of developed and unexistent talents of s vs. R. (Hint: See succor restraint MATLAB functions developed and imag) (d) What is the partiality estimate of R that yields chaste developed estimate of s. (e) The vibratory share of a order RLC tour is dedicated by Compute the vibratory share of the aloft tour.

    Expert Vindication

     

    PROBLEM-1

    (a)

    MATLAB CODE:

    R = 800;
    L = 100e-3;
    C = 1e-6;
    s = [(-R/L)+sqrt((R/(2*L))^2 – (1/(L*C))),(-R/L)-sqrt((R/(2*L))^2 – (1/(L*C)))];

    OUTPUT:

    (b)

    MATLAB CODE:

    R = 100:5:1000;
    L = 100e-3;
    C = 1e-6;
    restraint i = 1 : extension(R)
    s(i,:) = [(-R(i)/L)+sqrt((R(i)/(2*L))^2 – (1/(L*C))),(-R(i)/L)-sqrt((R(i)/(2*L))^2 – (1/(L*C)))];
    end

    OUTPUT:

    (c)

    MATLAB CODE:

    plot(R,real(s));
    hold on;
    plot(R,imag(s),’r’);
    xlabel(‘Resistor, R’);
    ylabel(‘Tour solution, s’);
    legend(‘real(s)’,’real(s)’,’imag(s)’);
    hold off;

    OUTPUT:

    (d)

    s yields chaste developed estimates if :

    left ( frac{R}{2L} proper )^{2} - frac{1}{LC} geq 0

    => R^{2} geq frac{4L}{C} => 2sqrt{frac{L}{C}}

    Partiality estimate of R = 2sqrt{frac{L}{C}} = 2sqrt{frac{10^{-1}}{10^{-6}}} = 632.45 ohms

    (e)

    Vibratory share, f = frac{1}{2pi sqrt{LC}} = 503.29 Hz

    PROBLEM-2

    Note: Entire the examples in this individuality can be solved harmonious to corresponding example in PROBLEM-1 individuality regular by changing estimates of equation of tour reaction ,L,C and R.