5. MATLAB 1: Modify the code given in MATLAB 1.4 (ML0104 on p.24) to generate a plotwhere the amplitude is 4 V/m, the wave is attenuated by an attenuation of 0.001 Np/m, atthe frequency of 1 MHz. In your summary statement, convert your attenuation factor fromNp/m to dB/m. Paste your MATLAB code, plot, and a short summary statement into asingle pdf document and upload to the Canvas website under MATLAB Assignments by thedue date.g88op dogzg888888do dozM-File: ML0104Program plots wave (in vacuum) versus z-position fora fixed time.Wentworth, 12/13/04Variables:Aofomegatphiphirсlambda응BANAclcclear8Ao=1;f=1000;t=1;phi=0;phir-phi*pi/180;c=2.998e8;lambda=c/f;Initialize VariablesB=2*pi/lambda;omega=2*pi*f;initial wave amplitudefrequency (Hz)angular frequency (rad/sec)time snapshot (sec)phase constant (degrees)phase constant (radians)speed of light in vac. (m/s)wavelength (m)phase constant (1/m)the function A(z, t)position8plot (z, A)axis ('tight')gridclears the command windowclears variablesPerform Calculationz=0:4*lambda/100:4*lambda;A=Ao*cos (omega*t-B* z+phir);xlabel('z(m)')ylabel ('A (z, t)')Generate the Plotsets axes min & max data values

Initialize the given variables: amplitude, frequency, attenuation, speed of light, and time…

5. MATLAB 1: Modify the code given in MATLAB 1.4 (ML0104 on p.24) to generate a plot where the amplitude is 4 V/m, the wave is attenuated by an attenuation of 0.001 Np/m, at the frequency of 1 MHz. In your summary statement, convert your attenuation factor from Np/m to dB/m. Paste your MATLAB code, plot, and a short summary statement into a single pdf document and upload to the Canvas website under MATLAB Assignments by the due date. 8 8 8 M-File: ML0104 Program plots wave (in vacuum) versus z-position for a fixed time. Wentworth, 12/13/04 Variables: Ao f & 8 8 t 8 8 omega phi phir lambda . B . A 8z clc clear 8 Ao=1; f=1000; 8 t=1; phi=0; phir-phi*pi/180; c=2.998e8; lambda=c/f; Initialize Variables B=2*pi/lambda; omega=2*pi*f; initial wave amplitude frequency (Hz) angular frequency (rad/sec) time snapshot (sec) phase constant (degrees) phase constant (radians) speed of light in vac. (m/s) wavelength (m) phase constant (1/m) the function A(z, t) position Perform Calculation z=0:4*lambda/100: 4*lambda; 8 plot (z,A) axis ('tight') grid clears the command window clears variables A=Ao*cos (omega*t-B*z+phir); xlabel('z(m)') ylabel('A (z, t)') Generate the Plot sets axes min & max data values

5. MATLAB 1: Modify the code given in MATLAB 1.4 (ML0104 on p.24) to generate a plot where the amplitude is 4 V/m, the wave is attenuated by an attenuation of 0.001 Np/m, at the frequency of 1 MHz. In your summary statement, convert your attenuation factor from Np/m to dB/m. Paste your MATLAB code, plot, and a short summary statement into a single pdf document and upload to the Canvas website under MATLAB Assignments by the due date. 8 8 8 M-File: ML0104 Program plots wave (in vacuum) versus z-position for a fixed time. Wentworth, 12/13/04 Variables: Ao f & 8 8 t 8 8 omega phi phir lambda . B . A 8z clc clear 8 Ao=1; f=1000; 8 t=1; phi=0; phir-phipi/180; c=2.998e8; lambda=c/f; Initialize Variables B=2pi/lambda; omega=2pif; initial wave amplitude frequency (Hz) angular frequency (rad/sec) time snapshot (sec) phase constant (degrees) phase constant (radians) speed of light in vac. (m/s) wavelength (m) phase constant (1/m) the function A(z, t) position Perform Calculation z=0:4lambda/100: 4lambda; 8 plot (z,A) axis ('tight') grid clears the command window clears variables A=Aocos (omegat-B*z+phir); xlabel('z(m)') ylabel('A (z, t)') Generate the Plot sets axes min & max data values

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

See similar textbooks

Similar questions

1. In MATLAB, write your OWN Lowpass Filter function which will take a .wav audio file and filter it. a) All functions used must be your own except for the use of the FFT b) You should have a plot which compares the FFT data of the .wav before and after filtering
Write matlab code to plot the function : y = cos3x + 3sinx - 1. x= 0:0.01:2*pi. Provide plot screenshot as well.
Problem 2 You are studying the temperature and pressure of the atmosphere at various altitudes and want to correlate your collected data with NASA. Write a Matlab program that takes an input from the user for altitude (H) in meters. Use this input to determine and print the region of the atmosphere, temperature (T) [°C], and pressure (P) [kPa] using the NASA model. If the input altitude is outside of the ranges below, the program should print an error message and terminate. Trophosphere • Altitude: < 11000 • Temperature: T 15.04 - 0.00649 T+273.1 5.256 • Pressure: P = 101.29 288.08 Lower Stratosphere • Altitude: 11000 < H < 25000 • Temperature: T = -56.46 • Pressure: P = 22.65e 1.73-0.000157H Upper Stratosphere • Altitude: 25000
I need the answer in matlab
Write a Matlab function that returns the value of "y" for a given value of "x" and "N": y = N Σ n=0 ⚫ function name: "exam1" ⚫ function input variables: "x" and "N" ⚫ you MUST use a for-loop
Write the code in Matlab and attach output. Dont reject it Please.
.
5. Write a MATLAB program to plot the autocorrelation of the given sequence signal and attach the source code as well as output. inpSignal =[1 2 3 4 5 6 7]
Do ASAP in matlab and put up screenshot of code and output
1/ Write matlab program to plot the function shown below: 3 2.5 1.5 0.5 -0.5 -1 -6 -2 2 Your first Name Your second name 2.
Use Matlab to code this problem and please attach the output. Dont reject it
Perform the following exercises in MATLAB. Follow the required filenames for each activity. Write a program in Matlab that will allow the user to calculate the body mass index (BMI) in kg/m2 and classify the BMI. The user shall input weight in pounds (lbs) and height in centimeters (cm). After the calculation, the program can be able to determine if it is underweight, normal range, overweight, obese I, and obese II