Project Name:$-$

$\_($A$)$DC$\_($L$)$ED$\_($B$)$ar$\_($G$)$raph

Description:$-$ This program reads the Analog voltage from the potentiometer on input $"$AN$0$

$($RA$0)"$ and turns ON the $10$ LEDs connected to ports RA $<mn>2</mn>$:$1>$ and RB$<mn>7</mn>$:$0>$RB$<mn>7</mn>$:$0>()/()$#define ONE$\_($L$)$ED $....$

$()/()$#define TWO$\_($L$)$EDS $...$

$......$

$()/()$#define TEN$\_($L$)$EDS

Setup PORTB pins RB$<mn>7</mn>$:$0>$ as Digital Outputs.

Setup AN$(0)/($R$)$A$0$ pin as an Analog input.

Setup pins RA$<mn>2</mn>$:$1>$ as Digital Outputs.

Setup the ADC as follows $($see ADCON$0$ & ADCON$1$ registers on pages$(114)/(115)$ of the

PIC$16$F$188$ Datasheet$)$:$-$

ADCON$0$

Setup "ADCS $<mn>1</mn>$:$0>"$ bits to select the internal RC

oscillator

Setup $"$CHS$<mn>2</mn>$:$0>"$ to select Channel $0($i$.$e$.$ RA$(0)/($A$)$N$0)$

Setup "ADON" bit to turn on$($ A$)/($D$)$ module

ADCON$1$

Setup "ADFM" bit to select Right Justified result

Setup "ADCS$2"$ bit as disabled

Setup $"$VCFG$<mn>1</mn>$:$0>"$ bits to use AVDD and AVss

Create a $16-$bit variable called "adc$\_($v$)$al$",$ to store the $10-$bit adc result.

Inside a continuous loop, start an $($A$)/($b$)$ar $($D$)$C$<mn>2</mn>$:$1>,$RB$<mn>7</mn>$:$0>$