//************************************************************************************
//**  
//**  File name:     C:\Documents and Settings\Jakab Gipsz\Asztal\teszt\Flowcode1.c
//**  Title:         
//**  Description:   
//**  
//**  Generated by:  Flowcode v5.5.2.1
//**  Date:          Saturday, November 07, 2015 13:18:44
//**  Licence:       Professional
//**  Registered to: Jakab Gipsz
//**  Licence key:   500NN8
//**  
//**  
//**  http://www.matrixmultimedia.com
//**  
//************************************************************************************


#define MX_PIC

#define MX_USES_UINT8 1
#define MX_USES_SINT16 0
#define MX_USES_CHAR 0
#define MX_USES_FLOAT 0
#define MX_USES_SINT32 0
#define MX_USES_BOOL 0
#define MX_USES_UINT16 0
#define MX_USES_UINT32 0
//Mikrovezérl? definíciók
#define P18F46K80
#define FC_CAL_PIC
#define MX_ADC
#define MX_ADC_TYPE_32
#define MX_ADC_BITS_12
#define MX_EE
#define MX_EE_TYPE3
#define MX_EE_SIZE 1024
#define MX_SPI_1
#define MX_SPI_1_MISO_PORT portc
#define MX_SPI_1_MISO_TRIS trisc
#define MX_SPI_1_MISO_PIN 4
#define MX_SPI_1_MOSI_PORT portc
#define MX_SPI_1_MOSI_TRIS trisc
#define MX_SPI_1_MOSI_PIN 5
#define MX_SPI_1_CLK_PORT portc
#define MX_SPI_1_CLK_TRIS trisc
#define MX_SPI_1_CLK_PIN 3
#define MX_SPI_1_SS_PORT porta
#define MX_SPI_1_SS_TRIS trisa
#define MX_SPI_1_SS_PIN 5
#define MX_UART_1
#define MX_UART_1_TX_PORT portc
#define MX_UART_1_TX_TRIS trisc
#define MX_UART_1_TX_PIN 6
#define MX_UART_1_RX_PORT portc
#define MX_UART_1_RX_TRIS trisc
#define MX_UART_1_RX_PIN 7
#define MX_UART_2
#define MX_UART_2_TX_PORT portd
#define MX_UART_2_TX_TRIS trisd
#define MX_UART_2_TX_PIN 6
#define MX_UART_2_RX_PORT portd
#define MX_UART_2_RX_TRIS trisd
#define MX_UART_2_RX_PIN 7
#define MX_I2C
#define MX_MI2C
#define MX_I2C_1
#define MX_I2C_1_SDA_PORT portc
#define MX_I2C_1_SDA_TRIS trisc
#define MX_I2C_1_SDA_PIN 4
#define MX_I2C_1_SCL_PORT portc
#define MX_I2C_1_SCL_TRIS trisc
#define MX_I2C_1_SCL_PIN 3
#define MX_PWM
#define MX_PWM_CNT 5
#define MX_PWM_PSCA1
#define MX_PWM_PSCA4
#define MX_PWM_PSCA16
#define MX_PWM_1_PORT portd
#define MX_PWM_1_TRIS trisd
#define MX_PWM_1_PIN 4
#define MX_PWM_2_PORT portc
#define MX_PWM_2_TRIS trisc
#define MX_PWM_2_PIN 2
#define MX_PWM_3_PORT portc
#define MX_PWM_3_TRIS trisc
#define MX_PWM_3_PIN 6
#define MX_PWM_4_PORT portc
#define MX_PWM_4_TRIS trisc
#define MX_PWM_4_PIN 7
#define MX_PWM_5_PORT portb
#define MX_PWM_5_TRIS trisb
#define MX_PWM_5_PIN 5
#define MX_ECAN

//Függvények
#define MX_CLK_SPEED 64000000
#ifdef _BOOSTC
#include <system.h>
#endif
#ifdef HI_TECH_C
#include <pic18.h>
#endif

//Konfigurációs adatok
#ifdef _BOOSTC
#pragma DATA 0x300000, 0x11
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300001, 0x18
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300002, 0x78
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300003, 0x70
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300004, 0xff
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300005, 0x9
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300006, 0x81
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300007, 0xff
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300008, 0xf
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x300009, 0xc0
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x30000a, 0xf
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x30000b, 0xe0
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x30000c, 0xf
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif
#ifdef _BOOSTC
#pragma DATA 0x30000d, 0x40
#endif
#ifdef _HI_TECH_C
%C__CONFIG(%A, %V);
#endif

//Bels? függvények
#include "C:\Program Files\Flowcode\v5\FCD\internals.c"

//Makró deklarációk


//Változó deklarációk
MX_UINT8 FCV_X = (0x0);




//LCDDisplay(0): //Defines:

/**** Macro Substitutions ****
a = Unique Component Reference Number
b = D1 Port Letter
c = D2 Port Letter
d = D3 Port Letter
e = D4 Port Letter
f = RS Port Letter
g = E Port Letter
h = Data 1_Pin
i = Data 2 Pin
j = Data 3 Pin
k = Data 4 Pin
l = RS Pin
m = Enable Pin
n = Row Count
o = Column Count
******************************/

	//component connections
	//Port pin lat workaround for 8-bit PIC devices running >= 32MHz
	//seems we need this mod for 19660800 16F1937 so changed to >= 16MHz

  #ifdef FC_CAL_PIC
   #if MX_CLK_SPEED >= 32000000
	#define LCD_1__PORT0    latc
	#define LCD_1__PORT1    latc
	#define LCD_1__PORT2    latd
	#define LCD_1__PORT3    latd
	#define LCD_1__PORT4    latc
	#define LCD_1__PORT5    latc
   #else
    #ifdef MX_LCD_PORT_LAT
	 #define LCD_1__PORT0    latc
	 #define LCD_1__PORT1    latc
	 #define LCD_1__PORT2    latd
	 #define LCD_1__PORT3    latd
	 #define LCD_1__PORT4    latc
	 #define LCD_1__PORT5    latc
    #else
	 #define LCD_1__PORT0    portc
	 #define LCD_1__PORT1    portc
	 #define LCD_1__PORT2    portd
	 #define LCD_1__PORT3    portd
	 #define LCD_1__PORT4    portc
	 #define LCD_1__PORT5    portc
	#endif
   #endif
  #else
	#define LCD_1__PORT0    portc
	#define LCD_1__PORT1    portc
	#define LCD_1__PORT2    portd
	#define LCD_1__PORT3    portd
	#define LCD_1__PORT4    portc
	#define LCD_1__PORT5    portc
  #endif

	#define LCD_1__TRIS0    trisc
	#define LCD_1__TRIS1    trisc
	#define LCD_1__TRIS2    trisd
	#define LCD_1__TRIS3    trisd
	#define LCD_1__TRIS4    trisc
	#define LCD_1__TRIS5    trisc
	#define LCD_1__BIT0    	5
	#define LCD_1__BIT1    	4
	#define LCD_1__BIT2    	3
	#define LCD_1__BIT3    	2
	#define LCD_1__RS      	7
	#define LCD_1__E       	6
	#define LCD_1__ROWCNT	2
	#define LCD_1__COLCNT	16

	#ifdef _BOOSTC
	  #define LCD_1__DELAY   delay_10us(10)
	#endif
	#ifdef _C2C_
	  #define LCD_1__DELAY   delay_us(100)
	#endif
	#ifdef HI_TECH_C
	  #define LCD_1__DELAY   __delay_us(120)
	#endif
	#ifndef LCD_1__DELAY
	  #define LCD_1__DELAY   delay_us(100)
	#endif




//LCDDisplay(0): //Makró deklarációk

void FCD_LCDDisplay0_RawSend(MX_UINT8 in, MX_UINT8 mask);
void FCD_LCDDisplay0_Start();
void FCD_LCDDisplay0_Clear();
void FCD_LCDDisplay0_PrintASCII(MX_UINT8 Character);
void FCD_LCDDisplay0_Command(MX_UINT8 in);
void FCD_LCDDisplay0_Cursor(MX_UINT8 x, MX_UINT8 y);
void FCD_LCDDisplay0_PrintNumber(MX_SINT16 Number);
void FCD_LCDDisplay0_PrintString(MX_STRING String, MX_UINT8 MSZ_String);
void FCD_LCDDisplay0_ScrollDisplay(MX_UINT8 Direction, MX_UINT8 Num_Positions);
void FCD_LCDDisplay0_ClearLine(MX_UINT8 Line);
void FCD_LCDDisplay0_RAM_Write(MX_UINT8 nIdx, MX_UINT8 d0, MX_UINT8 d1, MX_UINT8 d2, MX_UINT8 d3, MX_UINT8 d4, MX_UINT8 d5, MX_UINT8 d6, MX_UINT8 d7);


//ADC(0): //Defines:

/**** Macro Substitutions ****
a = Unique Reference
b = Which ADC Channel
c = Acquisition time
d = Conversion Speed
e = VRef+ Option
f = VRef Voltage x 0.01V
******************************/

//Common Defines

#define ADC_2_MX_ADC_CHANNEL	0
#define ADC_2_MX_ADC_ACTIME	40
#define ADC_2_MX_ADC_CONVSP	6
#define ADC_2_MX_ADC_VREFOP	0
#define ADC_2_MX_ADC_VREFVOL	500

#ifndef MX_ADC_CHANNEL_0
 #define MX_ADC_CHANNEL_0			//Inform CAL ADC channel 0 is now in use.
#endif

#ifndef MX_ADC_REF					//Inform CAL ADC peripheral is now in use
 #define MX_ADC_REF
#endif

extern void FC_CAL_Enable_ADC (MX_UINT8 Channel, MX_UINT8 Conv_Speed, MX_UINT8 Vref, MX_UINT8 T_Charge);
extern MX_UINT16 FC_CAL_Sample_ADC (MX_UINT8 Sample_Mode);
extern void FC_CAL_Disable_ADC (void);




//ADC(0): //Makró deklarációk

void FCD_ADC0_SampleADC();
MX_UINT8 FCD_ADC0_ReadAsByte();
MX_UINT16 FCD_ADC0_ReadAsInt();
MX_FLOAT FCD_ADC0_ReadAsVoltage();
void FCD_ADC0_ReadAsString(MX_CHAR* FCR_RETVAL, MX_UINT8 FCR_RETVAL_SIZE);
void FCD_ADC0_ADC_RAW_Configure_Channel();
MX_UINT8 FCD_ADC0_ADC_RAW_Sample_Channel_Byte();
MX_UINT16 FCD_ADC0_ADC_RAW_Sample_Channel_Int();
MX_UINT8 FCD_ADC0_ADC_RAW_Average_Channel_Byte(MX_UINT8 NumSamples, MX_UINT8 DelayUs);
MX_UINT16 FCD_ADC0_ADC_RAW_Average_Channel_Int(MX_UINT8 NumSamples, MX_UINT8 DelayUs);
void FCD_ADC0_ADC_RAW_Disable_Channel();



//LCDDisplay(0): //Makró implementációk


void FCD_LCDDisplay0_RawSend(MX_UINT8 in, MX_UINT8 mask)
{
	
		MX_UINT8 pt;

		FC_CAL_Bit_Low(LCD_1__PORT0, LCD_1__BIT0);
		FC_CAL_Bit_Low(LCD_1__PORT1, LCD_1__BIT1);
		FC_CAL_Bit_Low(LCD_1__PORT2, LCD_1__BIT2);
		FC_CAL_Bit_Low(LCD_1__PORT3, LCD_1__BIT3);
		FC_CAL_Bit_Low(LCD_1__PORT4, LCD_1__RS);
		FC_CAL_Bit_Low(LCD_1__PORT5, LCD_1__E);
		pt = ((in >> 4) & 0x0f);
		if (pt & 0x01)
		    FC_CAL_Bit_High(LCD_1__PORT0, LCD_1__BIT0);
		if (pt & 0x02)
		    FC_CAL_Bit_High(LCD_1__PORT1, LCD_1__BIT1);
		if (pt & 0x04)
		    FC_CAL_Bit_High(LCD_1__PORT2, LCD_1__BIT2);
		if (pt & 0x08)
		    FC_CAL_Bit_High(LCD_1__PORT3, LCD_1__BIT3);
		if (mask)
		    FC_CAL_Bit_High(LCD_1__PORT4, LCD_1__RS);
		LCD_1__DELAY;
		FC_CAL_Bit_High (LCD_1__PORT5, LCD_1__E);
		LCD_1__DELAY;
		FC_CAL_Bit_Low (LCD_1__PORT5, LCD_1__E);
		pt = (in & 0x0f);
		LCD_1__DELAY;
		FC_CAL_Bit_Low(LCD_1__PORT0, LCD_1__BIT0);
		FC_CAL_Bit_Low(LCD_1__PORT1, LCD_1__BIT1);
		FC_CAL_Bit_Low(LCD_1__PORT2, LCD_1__BIT2);
		FC_CAL_Bit_Low(LCD_1__PORT3, LCD_1__BIT3);
		FC_CAL_Bit_Low(LCD_1__PORT4, LCD_1__RS);
		FC_CAL_Bit_Low(LCD_1__PORT5, LCD_1__E);
		if (pt & 0x01)
		    FC_CAL_Bit_High(LCD_1__PORT0, LCD_1__BIT0);
		if (pt & 0x02)
		    FC_CAL_Bit_High(LCD_1__PORT1, LCD_1__BIT1);
		if (pt & 0x04)
		    FC_CAL_Bit_High(LCD_1__PORT2, LCD_1__BIT2);
		if (pt & 0x08)
		    FC_CAL_Bit_High(LCD_1__PORT3, LCD_1__BIT3);
		if (mask)
		    FC_CAL_Bit_High(LCD_1__PORT4, LCD_1__RS);
		LCD_1__DELAY;
		FC_CAL_Bit_High (LCD_1__PORT5, LCD_1__E);
		LCD_1__DELAY;
		FC_CAL_Bit_Low (LCD_1__PORT5, LCD_1__E);
		LCD_1__DELAY;

}

void FCD_LCDDisplay0_Start()
{
	
		FC_CAL_Bit_Low_DDR(LCD_1__PORT0, LCD_1__TRIS0, LCD_1__BIT0);
		FC_CAL_Bit_Low_DDR(LCD_1__PORT1, LCD_1__TRIS1, LCD_1__BIT1);
		FC_CAL_Bit_Low_DDR(LCD_1__PORT2, LCD_1__TRIS2, LCD_1__BIT2);
		FC_CAL_Bit_Low_DDR(LCD_1__PORT3, LCD_1__TRIS3, LCD_1__BIT3);
		FC_CAL_Bit_Low_DDR(LCD_1__PORT4, LCD_1__TRIS4, LCD_1__RS);
		FC_CAL_Bit_Low_DDR(LCD_1__PORT5, LCD_1__TRIS5, LCD_1__E);

		Wdt_Delay_Ms(12);

		FCD_LCDDisplay0_RawSend(0x33, 0);
		Wdt_Delay_Ms(2);
		FCD_LCDDisplay0_RawSend(0x33, 0);
		Wdt_Delay_Ms(2);
		FCD_LCDDisplay0_RawSend(0x32, 0);
		Wdt_Delay_Ms(2);
		FCD_LCDDisplay0_RawSend(0x2c, 0);
		Wdt_Delay_Ms(2);
		FCD_LCDDisplay0_RawSend(0x06, 0);
		Wdt_Delay_Ms(2);
		FCD_LCDDisplay0_RawSend(0x0c, 0);
		Wdt_Delay_Ms(2);

		//clear the display
		FCD_LCDDisplay0_RawSend(0x01, 0);
		Wdt_Delay_Ms(2);
		FCD_LCDDisplay0_RawSend(0x02, 0);
		Wdt_Delay_Ms(2);

}

void FCD_LCDDisplay0_Clear()
{
	
		FCD_LCDDisplay0_RawSend(0x01, 0);
		Wdt_Delay_Ms(2);
		FCD_LCDDisplay0_RawSend(0x02, 0);
		Wdt_Delay_Ms(2);

}

void FCD_LCDDisplay0_PrintASCII(MX_UINT8 Character)
{
	
		FCD_LCDDisplay0_RawSend(Character, 0x10);

}

void FCD_LCDDisplay0_Command(MX_UINT8 in)
{
	
		FCD_LCDDisplay0_RawSend(in, 0);
		Wdt_Delay_Ms(2);

}

void FCD_LCDDisplay0_Cursor(MX_UINT8 x, MX_UINT8 y)
{
	
	  #if (LCD_1__ROWCNT == 1)
	    y=0x80;
	  #endif

	  #if (LCD_1__ROWCNT == 2)
		if (y==0)
			y=0x80;
		else
			y=0xc0;
	  #endif

	  #if (LCD_1__ROWCNT == 4)
		if (y==0)
			y=0x80;
		else if (y==1)
			y=0xc0;

		#if (LCD_1__COLCNT == 16)
			else if (y==2)
				y=0x90;
			else
				y=0xd0;
		#endif

		#if (LCD_1__COLCNT == 20)
			else if (y==2)
				y=0x94;
			else
				y=0xd4;
		#endif
	  #endif

		FCD_LCDDisplay0_RawSend(y+x, 0);
		Wdt_Delay_Ms(2);

}

void FCD_LCDDisplay0_PrintNumber(MX_SINT16 Number)
{
	
		MX_SINT16 tmp_int;
		MX_UINT8 tmp_byte;

		if (Number < 0)
		{
			FCD_LCDDisplay0_RawSend('-', 0x10);
			Number = 0 - Number;
		}

		tmp_int = Number;
		if (Number >= 10000)
		{
			tmp_byte = tmp_int / 10000;
			FCD_LCDDisplay0_RawSend('0' + tmp_byte, 0x10);

			while (tmp_byte > 0)
			{
				tmp_int = tmp_int - 10000;
				tmp_byte--;
			}
		}
		if (Number >= 1000)
		{
			tmp_byte = tmp_int / 1000;
			FCD_LCDDisplay0_RawSend('0' + tmp_byte, 0x10);

			while (tmp_byte > 0)
			{
				tmp_int = tmp_int - 1000;
				tmp_byte--;
			}
		}
		if (Number >= 100)
		{
			tmp_byte = tmp_int / 100;
			FCD_LCDDisplay0_RawSend('0' + tmp_byte, 0x10);

			while (tmp_byte > 0)
			{
				tmp_int = tmp_int - 100;
				tmp_byte--;
			}
		}
		if (Number >= 10)
		{
			tmp_byte = tmp_int / 10;
			FCD_LCDDisplay0_RawSend('0' + tmp_byte, 0x10);

			while (tmp_byte > 0)
			{
				tmp_int = tmp_int - 10;
				tmp_byte--;
			}
		}
		FCD_LCDDisplay0_RawSend('0' + tmp_int, 0x10);

}

void FCD_LCDDisplay0_PrintString(MX_STRING String, MX_UINT8 MSZ_String)
{
	
		MX_UINT8 idx = 0;

		for (idx=0; idx<MSZ_String; idx++)
		{
			if (String[idx] == 0)
			{
				break;
			}
			FCD_LCDDisplay0_RawSend(String[idx], 0x10);
		}

}

void FCD_LCDDisplay0_ScrollDisplay(MX_UINT8 Direction, MX_UINT8 Num_Positions)
{
	
		MX_UINT8 cmd = 0;
		MX_UINT8 count;

		//Choose the direction
		switch (Direction)
		{
			case 0:
			case 'l':
			case 'L':

				cmd = 0x18;
				break;

			case 1:
			case 'r':
			case 'R':

				cmd = 0x1C;
				break;

			default:
				break;
		}

		//If direction accepted then scroll the specified amount
		if (cmd)
		{
			for (count = 0; count < Num_Positions; count++)
				FCD_LCDDisplay0_Command(cmd);
		}

}

void FCD_LCDDisplay0_ClearLine(MX_UINT8 Line)
{
	
		MX_UINT8 count;
		MX_UINT8 rowcount;

		//Define number of columns per line
		#if (LCD_1__ROWCNT == 1)
			rowcount=80;
		#endif

		#if (LCD_1__ROWCNT == 2)
			rowcount=40;
		#endif

		#if (LCD_1__ROWCNT == 4)
			#if (LCD_1__COLCNT == 16)
				rowcount=16;
			#endif
			#if (LCD_1__COLCNT == 20)
				rowcount=20;
			#endif
		#endif

		//Start at beginning of the line
		FCD_LCDDisplay0_Cursor (0, Line);

		//Send out spaces to clear line
		for (count = 0; count < rowcount; count++)
			FCD_LCDDisplay0_RawSend(' ', 0x10);

		//Move back to the beginning of the line.
		FCD_LCDDisplay0_Cursor (0, Line);

}

void FCD_LCDDisplay0_RAM_Write(MX_UINT8 nIdx, MX_UINT8 d0, MX_UINT8 d1, MX_UINT8 d2, MX_UINT8 d3, MX_UINT8 d4, MX_UINT8 d5, MX_UINT8 d6, MX_UINT8 d7)
{
	   //set CGRAM address

	   FCD_LCDDisplay0_RawSend(64 + (nIdx << 3), 0);
	   delay_ms(2);

	   //write CGRAM data
	   FCD_LCDDisplay0_RawSend(d0, 0x10);
	   FCD_LCDDisplay0_RawSend(d1, 0x10);
	   FCD_LCDDisplay0_RawSend(d2, 0x10);
	   FCD_LCDDisplay0_RawSend(d3, 0x10);
	   FCD_LCDDisplay0_RawSend(d4, 0x10);
	   FCD_LCDDisplay0_RawSend(d5, 0x10);
	   FCD_LCDDisplay0_RawSend(d6, 0x10);
	   FCD_LCDDisplay0_RawSend(d7, 0x10);

	   //Clear the display
	   FCD_LCDDisplay0_RawSend(0x01, 0);
	   delay_ms(2);
	   FCD_LCDDisplay0_RawSend(0x02, 0);
	   delay_ms(2);

}



//ADC(0): //Makró implementációk


void FCD_ADC0_SampleADC()
{
	
	    //unused

}

MX_UINT8 FCD_ADC0_ReadAsByte()
{
	
		MX_UINT8 retVal;

		//Configure & Enable ADC Channel
		FC_CAL_Enable_ADC ( ADC_2_MX_ADC_CHANNEL , ADC_2_MX_ADC_CONVSP , ADC_2_MX_ADC_VREFOP , ADC_2_MX_ADC_ACTIME );

		retVal = FC_CAL_Sample_ADC( 0 );				//Perform Sample - Return as byte

		FC_CAL_Disable_ADC ();

		return (retVal);

}

MX_UINT16 FCD_ADC0_ReadAsInt()
{
	
		MX_UINT16 retVal;

		//Configure & Enable ADC Channel
		FC_CAL_Enable_ADC ( ADC_2_MX_ADC_CHANNEL , ADC_2_MX_ADC_CONVSP , ADC_2_MX_ADC_VREFOP , ADC_2_MX_ADC_ACTIME );

		retVal = FC_CAL_Sample_ADC( 1 );				//Perform Sample - Return as MX_UINT16

		FC_CAL_Disable_ADC ();

		return (retVal);

}

MX_FLOAT FCD_ADC0_ReadAsVoltage()
{
	
		MX_UINT16 iSample;
		MX_FLOAT fSample, fVoltage, fVperDiv;

		//Configure & Enable ADC Channel
		FC_CAL_Enable_ADC ( ADC_2_MX_ADC_CHANNEL , ADC_2_MX_ADC_CONVSP , ADC_2_MX_ADC_VREFOP , ADC_2_MX_ADC_ACTIME );

	  #ifdef MX_ADC_BITS_8
		iSample = FC_CAL_Sample_ADC( 0 );								//Perform Sample - Return as byte
	  #else
		iSample = FC_CAL_Sample_ADC( 1 );								//Perform Sample - Return as MX_UINT16
	  #endif

	  	FC_CAL_Disable_ADC ();											//Switch off ADC peripheral
		fVoltage = flt_fromi( ADC_2_MX_ADC_VREFVOL );						//Convert reference voltage count to floating point (0 - 500 x 10mV)
		fVoltage = flt_mul(fVoltage, 0.01);								//Convert reference voltage count to actual voltage (0 - 5)

	  #ifdef MX_ADC_BITS_8
		fVperDiv = flt_mul(fVoltage, 0.00390625);						//Convert actual voltage to voltage per division (VRef / 256)
	  #endif
	  #ifdef MX_ADC_BITS_10
		fVperDiv = flt_mul(fVoltage, 0.000976);							//Convert actual voltage to voltage per division (VRef / 1024)
	  #endif
	  #ifdef MX_ADC_BITS_12
		fVperDiv = flt_mul(fVoltage, 0.00024414);						//Convert actual voltage to voltage per division (VRef / 4096)
	  #endif

		fSample = flt_fromi(iSample);									//Convert to floating point variable
		fVoltage = flt_mul(fSample, fVperDiv);							//Calculate floating point voltage

		return (fVoltage);

}

void FCD_ADC0_ReadAsString(MX_CHAR* FCR_RETVAL, MX_UINT8 FCR_RETVAL_SIZE)
{
	
		MX_FLOAT fVoltage;

		fVoltage = FCD_ADC0_ReadAsVoltage();
		FCI_FLOAT_TO_STRING(fVoltage, 2, FCR_RETVAL, FCR_RETVAL_SIZE);	//Convert to String

}

void FCD_ADC0_ADC_RAW_Configure_Channel()
{
	
		//Configure & Enable ADC Channel
		FC_CAL_Enable_ADC ( ADC_2_MX_ADC_CHANNEL , ADC_2_MX_ADC_CONVSP , ADC_2_MX_ADC_VREFOP , ADC_2_MX_ADC_ACTIME );

}

MX_UINT8 FCD_ADC0_ADC_RAW_Sample_Channel_Byte()
{
	
		return FC_CAL_Sample_ADC( 0 );									//Perform Sample - Return as byte

}

MX_UINT16 FCD_ADC0_ADC_RAW_Sample_Channel_Int()
{
	
		return FC_CAL_Sample_ADC( 1 );									//Perform Sample - Return as MX_UINT16

}

MX_UINT8 FCD_ADC0_ADC_RAW_Average_Channel_Byte(MX_UINT8 NumSamples, MX_UINT8 DelayUs)
{
	
		MX_UINT32 average = 0;
		MX_UINT8 count;

		for (count=0; count<NumSamples; count++)
		{
			average = average + FC_CAL_Sample_ADC( 0 );					//Perform Sample - Return as byte - add to average

			if (DelayUs)
				delay_us(DelayUs);										//If delay is not 0 then pause between samples
		}
		average = average / count;

		return (average & 0xFF);										//Return average as byte

}

MX_UINT16 FCD_ADC0_ADC_RAW_Average_Channel_Int(MX_UINT8 NumSamples, MX_UINT8 DelayUs)
{
	
		MX_UINT32 average = 0;
		MX_UINT8 count;

		for (count=0; count<NumSamples; count++)
		{
			average = average + FC_CAL_Sample_ADC( 1 );					//Perform Sample - Return as MX_UINT16 - add to average

			if (DelayUs)
				delay_us(DelayUs);										//If delay is not 0 then pause between samples
		}
		average = average / count;

		return (average & 0x1FFF);										//Return average as MX_SINT16

}

void FCD_ADC0_ADC_RAW_Disable_Channel()
{
	
		FC_CAL_Disable_ADC ();											//Disable ADC Channel

}

#include "C:\Program Files\Flowcode\v5\CAL\includes.c"

//Makró implementációk


void main()
{
	//Initialization
	ancon0 = 0x00;
ancon1 = 0x00;


	//Interrupt initialization code
	


	//Késleltetés
	//Késleltetés: 100 ms
	delay_ms(100);

	//C kód
	//C kód:
	osccon=0b01110000;
	osctune=0b01000000;

	//Komponens makró hívása
	//Komponens makró hívása: Start()
	FCD_LCDDisplay0_Start();

	//Ciklus
	//Ciklus: Amíg1
	while (1)
	{

		//Komponens makró hívása
		//Komponens makró hívása: x=ReadAsByte()
		FCV_X = FCD_ADC0_ReadAsByte();

		//Komponens makró hívása
		//Komponens makró hívása: Cursor(0, 0)
		FCD_LCDDisplay0_Cursor(0, 0);

		//Komponens makró hívása
		//Komponens makró hívása: PrintNumber(x)
		FCD_LCDDisplay0_PrintNumber(FCV_X);

		//Komponens makró hívása
		//Komponens makró hívása: PrintString("  ")
		FCD_LCDDisplay0_PrintString("  ", 2);

		//Késleltetés
		//Késleltetés: 250 ms
		delay_ms(250);


	}

	mainendloop: goto mainendloop;
}

void MX_INTERRUPT_MACRO(void)
{
}