//************************************************************************************ //** //** File name: H:\Display Files\Display Text & Simple Fill Box.c //** Generated by: Flowcode v4.5.18.74 //** Date: Tuesday, November 15, 2011 19:04:49 //** Licence: Professional //** Registered to: Mr John Crow //** //** //** http://www.matrixmultimedia.com //************************************************************************************ #define MX_PIC //Defines for microcontroller #define P16F877A #define MX_EE #define MX_EE_TYPE2 #define MX_EE_SIZE 256 #define MX_SPI #define MX_SPI_C #define MX_SPI_SDI 4 #define MX_SPI_SDO 5 #define MX_SPI_SCK 3 #define MX_UART #define MX_UART_C #define MX_UART_TX 6 #define MX_UART_RX 7 #define MX_I2C #define MX_MI2C #define MX_I2C_C #define MX_I2C_SDA 4 #define MX_I2C_SCL 3 #define MX_PWM #define MX_PWM_CNT 2 #define MX_PWM_TRIS1 trisc #define MX_PWM_1 2 #define MX_PWM_TRIS2 trisc #define MX_PWM_2 1 //Functions #define MX_CLK_SPEED 19660800 #ifdef _BOOSTC #include #endif #ifdef HI_TECH_C #include #endif //Configuration data #ifdef _BOOSTC #pragma DATA 0x2007, 0x3f3a #endif #ifdef HI_TECH_C __CONFIG(0x3f3a); #endif //Internal functions #include "C:\Program Files (x86)\Matrix Multimedia\Flowcode V4\FCD\internals.h" //Macro function declarations void FCM_ClearLCD(); void FCM_Text(); //Variable declarations char FCV_LCD_W; char FCV_DRAW; char FCV_X; char FCV_Y; char FCV_ACK; char FCV_INT_COUNT; char FCV_LCD_R; //I2C(0): //Defines: /**** Macro Substitutions **** 1 = SM BUS Enable 1 = Slew Rate Enable 98 = Baud Rate 1 = Hardware or Bitbanged I2C portc = Bitbanged Port Register trisc = Bitbanged Data Direction Register 3 = Bitbanged Clock Pin 4 = Bitbanged Data Pin MI2C_460460 = Unique component ID ******************************/ //common defines #define MI2C_460460_MX_MI2C_SMBUS 1 #define MI2C_460460_MX_MI2C_SLEW 1 #define MI2C_460460_MX_MI2C_BAUD (98/2) #define MI2C_460460_MX_HARDWARE 1 #if MI2C_460460_MX_HARDWARE == 1 #ifdef MX_I2C_A #define MI2C_460460_MX_TRIS trisa #define MI2C_460460_MX_PORT porta #endif #ifdef MX_I2C_B #define MI2C_460460_MX_TRIS trisb #define MI2C_460460_MX_PORT portb #endif #ifdef MX_I2C_C #define MI2C_460460_MX_TRIS trisc #define MI2C_460460_MX_PORT portc #endif #ifdef MX_I2C_D #define MI2C_460460_MX_TRIS trisd #define MI2C_460460_MX_PORT portd #endif #define MI2C_460460_MX_SCL MX_I2C_SCL #define MI2C_460460_MX_SDA MX_I2C_SDA #else #define MI2C_460460_MX_PORT portc #define MI2C_460460_MX_TRIS trisc #define MI2C_460460_MX_SCL 3 #define MI2C_460460_MX_SDA 4 #endif #define MI2C_460460_MX_I2C_DELAY delay_us(5); #define MI2C_460460_SET_SCL set_bit(MI2C_460460_MX_TRIS,MI2C_460460_MX_SCL); #define MI2C_460460_CLEAR_SCL {clear_bit(MI2C_460460_MX_TRIS,MI2C_460460_MX_SCL); clear_bit(MI2C_460460_MX_PORT,MI2C_460460_MX_SCL);} #define MI2C_460460_SET_SDA set_bit(MI2C_460460_MX_TRIS,MI2C_460460_MX_SDA); #define MI2C_460460_CLEAR_SDA {clear_bit(MI2C_460460_MX_TRIS,MI2C_460460_MX_SDA); clear_bit(MI2C_460460_MX_PORT,MI2C_460460_MX_SDA);} //I2C(0): //Macro function declarations void FCD_I2C0_MI2C_Init(); void FCD_I2C0_MI2C_Start(); void FCD_I2C0_MI2C_Restart(); void FCD_I2C0_MI2C_Stop(); char FCD_I2C0_MI2C_Transmit_Byte(char Data); char FCD_I2C0_MI2C_Receive_Byte(char Last); void FCD_I2C0_MI2C_Send_Byte_Transaction(char Device_ID, char AddrH, char AddrL, char Data); char FCD_I2C0_MI2C_Receive_Byte_Transaction(char Device_ID, char AddrH, char AddrL); //I2C(0): //Macro implementations void FCD_I2C0_MI2C_Init() { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_CAN_TX[0] = 1; //SMBUS MIAC_CAN_TX[1] = 1; //Slew MIAC_CAN_TX[2] = (98 >> 8); //Baud_H MIAC_CAN_TX[3] = 98; //Baud_L MIAC_Module_WR(ModID, 384, 4,1,0); MIAC_Module_GetAck(ModID + 32, 384, 20); #endif #else #if MI2C_460460_MX_HARDWARE == 1 //Use Master I2C Hardware #ifndef MX_MI2C #error "This chip does not have Master I2C capability" #else #if MI2C_460460_MX_MI2C_SLEW == 1 cr_bit (sspstat,SMP); //Slew Rate Control Enabled #else st_bit (sspstat,SMP); //Slew Rate Control Disabled #endif #if MI2C_460460_MX_MI2C_SMBUS == 1 st_bit (sspstat,CKE); //Enable SMBus specific inputs #else cr_bit (sspstat,CKE); //Disable SMBus specific inputs #endif #ifdef _BOOSTC #ifdef SSPCON sspcon = 0x28; //Setup I2C into Master Mode #endif #ifdef SSPCON1 sspcon1 = 0x28; //Setup I2C into Master Mode #endif #endif #ifdef HI_TECH_C #ifdef sspcon sspcon = 0x28; //Setup I2C into Master Mode #endif #ifdef sspcon1 sspcon1 = 0x28; //Setup I2C into Master Mode #endif #endif sspadd = MI2C_460460_MX_MI2C_BAUD; //Set the Baud Rate sspcon2 = 0x00; //Clear the control bits st_bit(intcon, GIE); set_bit(MI2C_460460_MX_TRIS, MI2C_460460_MX_SCL); //Configure SCL as Input set_bit(MI2C_460460_MX_TRIS, MI2C_460460_MX_SDA); //Configure SDA as Input #endif #else //Use Software clear_bit(MI2C_460460_MX_PORT,MI2C_460460_MX_SCL); //Set Outputs to 0 clear_bit(MI2C_460460_MX_PORT,MI2C_460460_MX_SDA); MI2C_460460_SET_SDA; //Configure SDA as Input MI2C_460460_SET_SCL; //Configure SCL as Input #endif #endif } void FCD_I2C0_MI2C_Start() { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_Module_WR(ModID, 385, 0,1,0); MIAC_Module_GetAck(ModID + 32, 385, 20); #endif #else #if MI2C_460460_MX_HARDWARE == 1 //Use Master I2C Hardware #ifndef MX_MI2C #error "This chip does not have Master I2C capability" #else cr_bit(pir1,SSPIF); //Clear SSP interrupt flag st_bit(sspcon2,SEN); //Initiate start condition while(ts_bit(sspcon2,SEN)); //Wait for start bit to be generated #endif #else //Use Software I2C MI2C_460460_SET_SCL; //Make Sure SCL is Set MI2C_460460_SET_SDA; //Make Sure SDA is Set MI2C_460460_MX_I2C_DELAY; //Small Delay MI2C_460460_CLEAR_SDA; //Clear SDA MI2C_460460_MX_I2C_DELAY; MI2C_460460_CLEAR_SCL; //Clear SCL MI2C_460460_MX_I2C_DELAY; #endif #endif } void FCD_I2C0_MI2C_Restart() { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_Module_WR(ModID, 386, 0,1,0); MIAC_Module_GetAck(ModID + 32, 386, 20); #endif #else #if MI2C_460460_MX_HARDWARE == 1 //Use Master I2C Hardware #ifndef MX_MI2C #error "This chip does not have Master I2C capability" #else cr_bit(pir1,SSPIF); //Clear SSP interrupt flag st_bit(sspcon2,RSEN); //Initiate restart condition while(ts_bit(sspcon2,RSEN)); //Wait for restart bit to be generated #endif #else //Use Software I2C MI2C_460460_SET_SDA; //Set SDA High MI2C_460460_MX_I2C_DELAY; MI2C_460460_SET_SCL; //Set SCL High MI2C_460460_MX_I2C_DELAY; MI2C_460460_CLEAR_SDA; //Set SDA Low MI2C_460460_MX_I2C_DELAY; MI2C_460460_CLEAR_SCL; //Set SCL Low MI2C_460460_MX_I2C_DELAY; #endif #endif } void FCD_I2C0_MI2C_Stop() { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_Module_WR(ModID, 387, 0,1,0); MIAC_Module_GetAck(ModID + 32, 387, 20); #endif #else #if MI2C_460460_MX_HARDWARE == 1 //Use Master I2C Hardware #ifndef MX_MI2C #error "This chip does not have Master I2C capability" #else cr_bit(pir1,SSPIF); //Clear SSP interrupt flag st_bit(sspcon2,PEN); //Initiate stop condition while(ts_bit(sspcon2,PEN)); //Wait for stop bit to be generated delay_ms(10); //Wait before reusing the I2C BUS #endif #else //Use Software I2C MI2C_460460_CLEAR_SCL; //Set SCL Low MI2C_460460_CLEAR_SDA; //Set SDA Low MI2C_460460_MX_I2C_DELAY; MI2C_460460_SET_SCL; //Set SCL High MI2C_460460_MX_I2C_DELAY; MI2C_460460_SET_SDA; //Set SDA High delay_ms(10); //Wait before reusing the I2C BUS #endif #endif } char FCD_I2C0_MI2C_Transmit_Byte(char Data) { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_CAN_TX[0] = Data; //Data MIAC_Module_WR(ModID, 388, 1,1,0); MIAC_Module_GetAck(ModID + 32, 388, 20); return(MIAC_CAN_RX[0]); #endif #else #if MI2C_460460_MX_HARDWARE == 1 //Use Master I2C Hardware #ifndef MX_MI2C #error "This chip does not have Master I2C capability" #else cr_bit(pir1,SSPIF); //Clear SSP interrupt flag sspbuf=Data; //Send byte while(ts_bit(pir1,SSPIF) == 0); //Wait for control bit to be sent if(ts_bit(sspcon2,ACKSTAT)) //Check Acknowledgement return (1); //No Acknowledgement else return (0); //Acknowledgement received #endif #else //Use Software I2C char bit_mask; char local_ack = 0; for(bit_mask=0x80;bit_mask;bit_mask=bit_mask>>1) { if(Data & bit_mask) { MI2C_460460_SET_SDA; //Set SDA High } else { MI2C_460460_CLEAR_SDA; //Set SDA Low } MI2C_460460_MX_I2C_DELAY; MI2C_460460_SET_SCL; //Set SCL High MI2C_460460_MX_I2C_DELAY; MI2C_460460_CLEAR_SCL; //Set SCL Low MI2C_460460_MX_I2C_DELAY; } MI2C_460460_SET_SDA; //Set SDA High MI2C_460460_MX_I2C_DELAY; MI2C_460460_SET_SCL; //Set SCL High MI2C_460460_MX_I2C_DELAY; if (test_bit(MI2C_460460_MX_PORT,MI2C_460460_MX_SDA)) //Get the Status Bit local_ack = 1; MI2C_460460_MX_I2C_DELAY; MI2C_460460_CLEAR_SCL; //Set SCL Low MI2C_460460_MX_I2C_DELAY; return (local_ack); //0 = Ack received : 1 = Ack not received #endif #endif } char FCD_I2C0_MI2C_Receive_Byte(char Last) { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_CAN_TX[0] = Last; MIAC_Module_WR(ModID, 389, 1,1,0); MIAC_Module_GetAck(ModID + 32, 389, 20); return(MIAC_CAN_RX[0]); #endif #else #if MI2C_460460_MX_HARDWARE == 1 //Use Master I2C Hardware #ifndef MX_MI2C #error "This chip does not have Master I2C capability" #else cr_bit(pir1,SSPIF); //Clear SSP interrupt flag st_bit(sspcon2,RCEN); //Initiate Read while(ts_bit(pir1,SSPIF) == 0); //Wait for data read if (Last) st_bit(sspcon2,ACKDT); //Send Nack else cr_bit(sspcon2,ACKDT); //Send Ack st_bit(sspcon2,ACKEN); //Initiate Nack while(ts_bit(sspcon2,ACKEN)); //Wait for data read return(sspbuf); //Store incoming data #endif #else //Use Software I2C char bit_mask; char Data = 0; char local_ack; MI2C_460460_SET_SDA; //Set SDA High MI2C_460460_MX_I2C_DELAY; for(bit_mask=0x80;bit_mask;bit_mask=bit_mask>>1) { MI2C_460460_SET_SCL; //Set SCL High MI2C_460460_MX_I2C_DELAY; MI2C_460460_SET_SDA; if(test_bit(MI2C_460460_MX_PORT,MI2C_460460_MX_SDA)) //Read Incoming Bit Data = Data | bit_mask; //Add data to variable MI2C_460460_CLEAR_SCL; //Set SCL Low MI2C_460460_MX_I2C_DELAY; } if (Last) //Acknowledge? { MI2C_460460_SET_SDA; //Send Nack } else { MI2C_460460_CLEAR_SDA; //Send Ack } MI2C_460460_MX_I2C_DELAY; MI2C_460460_SET_SCL; //Set SCL High MI2C_460460_MX_I2C_DELAY; MI2C_460460_CLEAR_SCL; //Set SCL Low MI2C_460460_MX_I2C_DELAY; return (Data); #endif #endif } void FCD_I2C0_MI2C_Send_Byte_Transaction(char Device_ID, char AddrH, char AddrL, char Data) { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_CAN_TX[0] = Device_ID; MIAC_CAN_TX[1] = AddrH; MIAC_CAN_TX[2] = AddrL; MIAC_CAN_TX[3] = Data; MIAC_Module_WR(ModID, 390, 4,1,0); MIAC_Module_GetAck(ModID + 32, 390, 20); #endif #else Device_ID = Device_ID << 1; //Shift Device ID to enable write mode FCD_I2C0_MI2C_Start(); //Start transaction FCD_I2C0_MI2C_Transmit_Byte(Device_ID); //Transmit Device Address FCD_I2C0_MI2C_Transmit_Byte(AddrH); //Transmit Internal Address FCD_I2C0_MI2C_Transmit_Byte(AddrL); FCD_I2C0_MI2C_Transmit_Byte(Data); //Send Data byte FCD_I2C0_MI2C_Stop(); //Stop Transaction #endif } char FCD_I2C0_MI2C_Receive_Byte_Transaction(char Device_ID, char AddrH, char AddrL) { #ifdef MX_MIAC_SYSTEM #if (1 != MX_MIAC_MM_MIAC_BASE) unsigned int ModID = ((trisc << 5) + portc) << 9; MIAC_CAN_TX[0] = Device_ID; MIAC_CAN_TX[1] = AddrH; MIAC_CAN_TX[2] = AddrL; MIAC_Module_WR(ModID, 391, 3,1,0); MIAC_Module_GetAck(ModID + 32, 391, 20); return(MIAC_CAN_RX[0]); #endif #else char RetVal = 0; Device_ID = Device_ID << 1; //Shift Device ID to enable write mode FCD_I2C0_MI2C_Start(); //Start transaction FCD_I2C0_MI2C_Transmit_Byte(Device_ID); //Transmit Device Address FCD_I2C0_MI2C_Transmit_Byte(AddrH); //Transmit Internal Address FCD_I2C0_MI2C_Transmit_Byte(AddrL); FCD_I2C0_MI2C_Restart(); //Restart transaction Device_ID = Device_ID | 0x01; //Change Device ID to read mode FCD_I2C0_MI2C_Transmit_Byte(Device_ID); //Transmit Device Address RetVal = FCD_I2C0_MI2C_Receive_Byte(1); //Read data at address FCD_I2C0_MI2C_Stop(); //Stop Transaction return RetVal; //Return data #endif } //Macro implementations void FCM_ClearLCD() { // //Call Component Macro: I2C(0)::MI2C_Start FCD_I2C0_MI2C_Start(); //Write to LCD //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(LCD_W) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(FCV_LCD_W); //Command 5 Reset & Clear //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(5) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(5); // //Call Component Macro: I2C(0)::MI2C_Stop FCD_I2C0_MI2C_Stop(); } void FCM_Text() { //Comment: //Set Row & Column position // //Call Component Macro: I2C(0)::MI2C_Start FCD_I2C0_MI2C_Start(); //Write to LCD //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(LCD_W) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(FCV_LCD_W); //Command 25 Set R,C position //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(0x25) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(0x25); //Row 0 //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(0) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(0); //Col 2 //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(2) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(2); // //Call Component Macro: I2C(0)::MI2C_Stop FCD_I2C0_MI2C_Stop(); //Comment: //Send Some Text To LCD // //Call Component Macro: I2C(0)::MI2C_Start FCD_I2C0_MI2C_Start(); //Write to LCD //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(LCD_W) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(FCV_LCD_W); //Command 20 White Character //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(0x20) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(0x20); //"Matrix Multimedia" //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte("Matrix Multimedia") FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('M'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('a'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('t'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('r'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('i'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('x'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(' '); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('M'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('u'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('l'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('t'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('i'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('m'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('e'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('d'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('i'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('a'); // //Call Component Macro: I2C(0)::MI2C_Stop FCD_I2C0_MI2C_Stop(); // //Call Component Macro: I2C(0)::MI2C_Start FCD_I2C0_MI2C_Start(); //Write to LCD //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(LCD_W) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(FCV_LCD_W); //Command 25 Set R,C position //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(0x25) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(0x25); //Row 2 //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(2) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(2); //Col 1 //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(1) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(1); // //Call Component Macro: I2C(0)::MI2C_Stop FCD_I2C0_MI2C_Stop(); // //Call Component Macro: I2C(0)::MI2C_Start FCD_I2C0_MI2C_Start(); //Write to LCD //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(LCD_W) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(FCV_LCD_W); //Command 20 White Character //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(0x20) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(0x20); //"On ByVac BV4512 LCD" //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte("On ByVac BV4512 LCD") FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('O'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('n'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(' '); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('B'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('y'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('V'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('a'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('c'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(' '); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('B'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('V'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('4'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('5'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('1'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('2'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(' '); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('L'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('C'); FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte('D'); // //Call Component Macro: I2C(0)::MI2C_Stop FCD_I2C0_MI2C_Stop(); // //Call Component Macro: I2C(0)::MI2C_Start FCD_I2C0_MI2C_Start(); //Write to LCD //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(LCD_W) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(FCV_LCD_W); //Comment: //Top Left Of Display = 0,0 //Command 18 Draw Fill Box //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(0x18) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(0x18); //X pos //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(10) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(10); //Y pos //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(50) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(50); //X Length //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(108) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(108); //Y Length //Call Component Macro: ack=I2C(0)::MI2C_Transmit_Byte(10) FCV_ACK = FCD_I2C0_MI2C_Transmit_Byte(10); // //Call Component Macro: I2C(0)::MI2C_Stop FCD_I2C0_MI2C_Stop(); } void main() { //Initialisation adcon1 = 0x07; //Interrupt initialisation code option_reg = 0xC0; //Delay //Delay: 20 ms delay_ms(20); //Calculation //Calculation: // LCD_W = 0x42 // LCD_R = 0x43 // X = 0 // Y = 0 FCV_LCD_W = 0x42; FCV_LCD_R = 0x43; FCV_X = 0; FCV_Y = 0; //Setup I2C //Call Component Macro: I2C(0)::MI2C_Init FCD_I2C0_MI2C_Init(); //Clear Display //Call Macro: ClearLCD FCM_ClearLCD(); //Display Text //Call Macro: Text FCM_Text(); //Delay //Delay: 10 s delay_s(10); mainendloop: goto mainendloop; } void MX_INTERRUPT_MACRO(void) { }