MPAE-11235-updated metadata, readme and example for CCL1.37.14

Author: Namrata Dalvi

.main-meta/main.json

@@ -4,7 +4,7 @@
     "content": {
         "metaDataVersion": "1.1.0",
         "name": "com.microchip.mcu8.mplabx.project.pic18f47q10-dac-waveform-generation",
-        "version": "1.0.1",
+        "version": "2.0.0",
         "displayName": "Waveform generation using DAC",
         "projectName": "pic18f47q10-dac-waveform-generation",
         "shortDescription": "This example demonstrates how DAC peripherals from PICQ10, can be used to generate reference voltage and different signals",
@@ -48,7 +48,7 @@
         ],
         "keywords": [
             "Waveform generation",
-		"Reference Voltage"
+		"Reference Voltage",
 		"Melody"			
         ],
 		"additionalData": {

README.md

@@ -7,7 +7,7 @@ The Digital-to-Analog Converter (DAC) converts a digital value to an analog volt
 
 DAC has a flexible option to choose both positive as well as negative reference voltage sources, depending on application requirement.
 
-This Xpress example discusses how DAC peripheral from PIC18F Q10 family of microcontrollers, can be used to generate reference voltage and different signals.
+This demo example discusses how DAC peripheral from PIC18F Q10 family of microcontrollers, can be used to generate reference voltage and different signals.
 
 # Related Documents / Useful Links
 
@@ -20,7 +20,7 @@ This Xpress example discusses how DAC peripheral from PIC18F Q10 family of micro
 The signals generated in this example are “Sine wave, Triangular wave, Square wave, Sawtooth wave, and constant (reference) voltage signals”. The digital Look Up Table (LUT) is created and fed into DAC input to generate the corresponding signal.  
 
 ### The LUT is generated by considering following parameters-
-1.  Constant (Reference) Voltage :
+1.  Constant (Reference) Voltage:
 * 	 Voltage 1.6V
 * 	 Voltage 3.0V
 
@@ -71,7 +71,7 @@ Following Microchip’s free IDE, compiler and graphical code generators are use
 ***Note: For running the demo, the installed tool versions should be the same or later. This example is not tested with previous versions.***
 
 # Hardware Setup
-The following figures (Figure 3.1 and Figure 3.2) shows the hardware connections/details.
+The following figures (Figure 3.1 and Figure 3.2) show the hardware connection details.
 
 ![Application_hardware_setup_front_view](images/Application_hardware_setup_front_view.jpg)
 
@@ -168,13 +168,13 @@ The on-board switch SW0 on the Curiosity Nano board is connected to RE2.  As ext
 * 	Turn on the Oscilloscope.
 * 	Observe the default Constant signal (Reference Voltage 1.6V) on the Oscilloscope screen.
 
-![Generated_reference_voltage_signal_on_oscilloscope_screen](images/Generated_reference_voltage_signal_on_oscilloscope_screen.png)
+![Generated_reference_voltage_signal_on_oscilloscope_screen](images/Generated_reference_voltage_signal_on_oscilloscope_screen_1.png)
 
 **Figure 11: Generated Reference voltage (1.6V) Signal on Oscilloscope screen**
 
 * 	Press on board button (SW0) to change the generated signal and observe the constant 3.0 volts signal on the Oscilloscope screen.
 
-![Generated_constant_voltage_signal_on_oscilloscope_screen](images/Generated_constant_voltage_signal_on_oscilloscope_screen.png)
+![Generated_constant_voltage_signal_on_oscilloscope_screen](images/Generated_reference_voltage_signal_on_oscilloscope_screen_2.png)
 
  **Figure 12: Generated Constant voltage (3.0V) Signal on Oscilloscope screen**
 
@@ -186,7 +186,7 @@ The on-board switch SW0 on the Curiosity Nano board is connected to RE2.  As ext
 
 * 	Press on board button (SW0) to change the generated signal and observe the Triangular wave on the Oscilloscope screen. 								
 
-![Generated_triangle_wave_on_oscilloscope](images/Generated_triangle_wave_on_oscilloscope.png)
+![Generated_triangle_wave_on_oscilloscope](images/Generated_triangular_wave_on_oscilloscope.png)
 
 **Figure 14: Generated Triangle Wave on Oscilloscope screen**