Pull request #2: Feature/version1

Merge in MCU16CE/matlab-mchv3-pfc from ~I50990/matlab-mchv3-pfc:feature/version1 to develop

* commit 'd11bdab455ce43115198ded9ffd2b332f814a774':
  Model subsystems are created. Removed the intermediate steps and comments of compensator coefficient calculations. Readme is updated.
  Created subsystem in the model
  Readme is updated

Author: SHYAMP8

README.md

@@ -1,25 +1,60 @@
-![image](images/microchip.jpg) 
+![image](images/microchip.png) 
+# MATLAB-Simulink model of Single-Stage Boost Power Factor Correction Converter
 
-## matlab mchv3 pfc
+## 1. INTRODUCTION
+This document describes how to configure and run the MATLAB-Simulink model of Single-Stage Boost Power Factor Correction Converter.
 
-Board Image if any.
+The Microchip dsPICDEM™ MCHV-3 Development Board [DM330023-3](https://www.microchip.com/en-us/development-tool/dm330023-3) includes a front-end Single-Stage Boost Power Factor Correction Unit and a High-Voltage Three-Phase Motor Control Inverter.
+By default, the model is configured to simulate the Power Correction Converter in the  dsPICDEM™ MCHV-3 Development Board.
 
-## Summary
+## 2.	SUGGESTED DEMONSTRATION REQUIREMENTS
+### 2.1 MATLAB Model Required for the Demonstration
+-  MATLAB model can be cloned or downloaded as zip file from the Github repository ([link](https://github.com/microchip-pic-avr-solutions/matlab-mchv3-pfc)).
 
+### 2.2	Software Tools Required for the Demonstration
+1.	MATLAB R2022a
 
-## Related Documentation
+## 3.	BASIC DEMONSTRATION
+Follow the below instructions step-by-step, to set up and run the MATLAB and Simulink model of power factor correction converter
 
+1. Launch MATLAB R2022a 
+2. Open the folder downloaded from the [Github repository](https://github.com/microchip-pic-avr-solutions/matlab-mchv3-pfc)
 
-## Software Used 
+    <p align="left" >
+    <img  src="images/dem1.png">
 
+3. Double-click and open the **PFC_Mathematicalmodel_MCHV3_data.m** file from the folder. This **.m file** contains the configuration parameters required for running the model. Execute the file by clicking the **Run** icon and wait until all the variables are loaded in the **Workspace** tab.
 
-## Hardware Used
+    <p align="left">
+      <img  src="images/dem2.png">
 
+4. Double click on the **PFC_Mathematicalmodel_MCHV3.slx** from the folder to open the Simulink model.
 
-## Setup
+    <p align="left">
+      <img  src="images/dem3.png">
 
+5. This opens the Simulink model as shown below. Click on the **Run** icon to start the simulation.
 
-## Operation
+    <p align="left">
+      <img  src="images/dem4.png">
 
+6. Double click on the **Scope** to view the input and output signals in the system.
 
+    <p align="left">
+      <img  src="images/dem5.png">
 
+    Example plots are shown below:
+    <p align="left">
+      <img  src="images/dem8.png"> 
+
+    <p align="left">
+      <img  src="images/dem9.png">   
+
+7. **Variable load** subsystem can be used to test the model under different load conditions to check the dynamic performance.
+
+    <p align="left">
+      <img  src="images/dem6.png">
+
+8. **Input subsystem** is provided with two input sources ,and it can be used to vary the applied input voltage to the model.
+    <p align="left">
+      <img  src="images/dem7.png">