Question

In: Electrical Engineering

Create matlab simulink model for dc-dc buck converter with screenshot. Note: provide matlab code for the...

Create matlab simulink model for dc-dc buck converter with screenshot.
Note: provide matlab code for the output of dc-dc buck converter if possible.

Solutions

Expert Solution

Beginning from here

% you have to update the following

% blocks:

%

% * Host_Read_12M_COM9_CL/Serial Configuration

% * Host_Read_12M_COM9_CL/Serial Receive

% * Host_Read_12M_COM9_CL/Serial Send/Serial Send

%

%% Run the Example

%

% * Open the target model <matlab:open_system('DCDC_Buck.slx')

% DCDC_Buck.slx> and generate code by typing Ctrl+B. Follow the build

% process by opening the diagnostic viewer with the link provided at the

% bottom of the model canvas. Once the code is loaded on the board, a blue

% LED blinks at a period of 1 second on the LaunchPad indicating that the

% code is properly running.

%

% * Open the host model <matlab:open_system('Host_Read_12M_COM9.slx')

% Host_Read_12M_COM9.slx>. Make sure that your COM port is properly

% configured following the model configuration instructions. Click on the

% play button to run the model.

%

%% Monitor Signals

%

% While the host model is running, the following signals can be monitored

% on the scope:

%

% # *I_FB Current*: The current flowing in the load resistors. Raw values

% are displayed to allow real-time logging. *4095 counts > 3.3A*

% # *V_FB Voltage*: The measured output voltage of the system. *4095 counts

% > 6.8V*

%

%% Tune Parameters

%

% While the host model is running, you can tune parameters that will be

% sent to the hardware using the following *dashboard blocks*:

%

% # *Voltage Request*: Change the output voltage demand. This parameter is

% the main request for the control loop. The controller algorithm will

% compare this value with the measured output voltage and adjust the PWM

% duty cycle to towards achieving that output voltage.

% # *Active load*: Turn on and off the active load present on the hardware.

% This parameter allows you to add an extra load resistor to study the

% effect of abrupt changes in the load circuit.

% # *P Gain*: Change the proportional gain of the controller algorithm. You

% can change this parameter to study the robustness of the controller.

% Aggressive changes may lead to instability of the controller, apply

% changes wisely.

% # *I Gain*: Change the integral gain of the controller algorithm. You can

% change this parameter to study the robustness of the controller.

% Aggressive changes may lead to instability of the controller, apply

% changes wisely.

End dont use in coading


Related Solutions

Perform the following task of dc-dc Buck converter. 1). Provide matlab code for DC-DC buck converter...
Perform the following task of dc-dc Buck converter. 1). Provide matlab code for DC-DC buck converter I need matlab code for dc-dc buck converter
solve in MATLAB and screenshot code ?′′ −??′ +??= ???(????−?????)
solve in MATLAB and screenshot code ?′′ −??′ +??= ???(????−?????)
Design DC to AC Inverter for electric vehicles using (MATLAB/SIMULINK)
Design DC to AC Inverter for electric vehicles using (MATLAB/SIMULINK)
How to model an inverted pendulum in matlab and simulink?
How to model an inverted pendulum in matlab and simulink?
write a matlab code to simulate fiber optics communication system on matlab simulink
write a matlab code to simulate fiber optics communication system on matlab simulink
matlab code for over and under voltage protection relay simulink models not needed just matlab codes
matlab code for over and under voltage protection relay simulink models not needed just matlab codes
2- Develop a simulink model for natural PWM inverter connected to a dc source of 100...
2- Develop a simulink model for natural PWM inverter connected to a dc source of 100 V and an output frequency of 60 Hz. The load is a series RL load with R = 10 Ohm and L = 25 mH. Use the simulation to Determine (a) The frequency Ratio to eliminate the 11th harmonic . (b) The fundamental output Voltage V1 (first term of Fourier series) (c) The fundamental output current I1 (d) If the load requires a fundamental...
Derive the small-signal model for the buck-boost converter. Then further derive Gvu(s) and Gvd(s).
Derive the small-signal model for the buck-boost converter. Then further derive Gvu(s) and Gvd(s).
Derive the small-signal model for the buck-boost converter. Then further derive Gvu(s) and Gvd(s).
Derive the small-signal model for the buck-boost converter. Then further derive Gvu(s) and Gvd(s).
Develop a detailed model the inverted pendulum system in MatLab/Simulink (a feedback compensator to stabilise and...
Develop a detailed model the inverted pendulum system in MatLab/Simulink (a feedback compensator to stabilise and control the dynamics of a rotating inverted pendulum, as described in Microchip Application Note AN964, “Software PID Control of an Inverted Pendulum Using the PIC16F684” by Charais and Lourens. T)
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT