//************************************************************************************ //** //** File name: C:\Users\T3CKN3SS\Documents\flowcode 5\Multi Loop pc case mod dual RGB broken.c //** Title: //** Description: //** //** Generated by: Flowcode v5.2.0.0 //** Date: Wednesday, June 01, 2016 11:38:09 //** Licence: Professional //** Registered to: T3CKN3SS //** Licence key: ****** //** //** //** 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 1 #define MX_USES_UINT16 0 #define MX_USES_UINT32 0 //Defines for microcontroller #define P16F676 #define FC_CAL_PIC #define MX_ADC #define MX_ADC_TYPE_3 #define MX_ADC_BITS_10 #define MX_EE #define MX_EE_TYPE1 #define MX_EE_SIZE 128 //Functions #define MX_CLK_SPEED 19660800 #ifdef _BOOSTC #include #endif #ifdef HI_TECH_C #include #endif //Configuration data //Internal functions #include "D:\Program Files\flowcode\FCD\internals.c" //Macro function declarations void FCM_Start_List(); void FCM_RGB2(); void FCM_RGB1(); void FCM_Mode(); //Variable declarations #define FCV_FALSE (0) #define FCV_TRUE (1) MX_UINT8 FCV_V_BLUE = (0x0); MX_UINT8 FCV_V_BLUE1 = (0x0); MX_UINT8 FCV_V_RED = (0x0); MX_UINT8 FCV_V_GREEN1 = (0x0); MX_UINT8 FCV_V_RED1 = (0x0); MX_UINT8 FCV_V_GREEN = (0x0); //LEDRGB(0): //Defines: /**** Macro Substitutions **** a = Unique Reference b = LED R Port Letter c = LED R Pin Number d = LED G Port Letter e = LED G Pin Number f = LED B Port Letter g = LED B Pin Number h = LED Active Polarity i = LED Bit Depth (1-8) default 6 ******************************/ #define LEDRGB_2_LED_PORT_R portc #define LEDRGB_2_LED_TRIS_R trisc #define LEDRGB_2_LED_PIN_R 5 #define LEDRGB_2_LED_PORT_G portc #define LEDRGB_2_LED_TRIS_G trisc #define LEDRGB_2_LED_PIN_G 4 #define LEDRGB_2_LED_PORT_B portc #define LEDRGB_2_LED_TRIS_B trisc #define LEDRGB_2_LED_PIN_B 3 #define LEDRGB_2_LED_POLE 1 #define LEDRGB_2_LED_BITD 6//%i #define LEDRGB_2_LED_SHIFT 8 - LEDRGB_2_LED_BITD #define LEDRGB_2_LED_ROLLOVER 0xFF >> LEDRGB_2_LED_SHIFT MX_UINT8 LEDRGB_2_led_en = 0; MX_UINT8 LEDRGB_2_led_tick = 0; MX_UINT8 LEDRGB_2_led_r = 0; MX_UINT8 LEDRGB_2_led_b = 0; MX_UINT8 LEDRGB_2_led_g = 0; //LEDRGB(0): //Macro function declarations void FCD_LEDRGB0_Enable(); void FCD_LEDRGB0_Disable(); void FCD_LEDRGB0_SetColor(MX_UINT8 red, MX_UINT8 green, MX_UINT8 blue); void FCD_LEDRGB0_Tick(); //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_3_MX_ADC_CHANNEL 3 #define ADC_3_MX_ADC_ACTIME 40 #define ADC_3_MX_ADC_CONVSP 3 #define ADC_3_MX_ADC_VREFOP 0 #define ADC_3_MX_ADC_VREFVOL 500 #ifndef MX_ADC_CHANNEL_3 #define MX_ADC_CHANNEL_3 //Inform CAL ADC channel 3 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): //Macro function declarations 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(); //LEDRGB(1): //Defines: /**** Macro Substitutions **** a = Unique Reference b = LED R Port Letter c = LED R Pin Number d = LED G Port Letter e = LED G Pin Number f = LED B Port Letter g = LED B Pin Number h = LED Active Polarity i = LED Bit Depth (1-8) default 6 ******************************/ #define LEDRGB_8_LED_PORT_R portc #define LEDRGB_8_LED_TRIS_R trisc #define LEDRGB_8_LED_PIN_R 0 #define LEDRGB_8_LED_PORT_G portc #define LEDRGB_8_LED_TRIS_G trisc #define LEDRGB_8_LED_PIN_G 1 #define LEDRGB_8_LED_PORT_B portc #define LEDRGB_8_LED_TRIS_B trisc #define LEDRGB_8_LED_PIN_B 2 #define LEDRGB_8_LED_POLE 1 #define LEDRGB_8_LED_BITD 6//%i #define LEDRGB_8_LED_SHIFT 8 - LEDRGB_8_LED_BITD #define LEDRGB_8_LED_ROLLOVER 0xFF >> LEDRGB_8_LED_SHIFT MX_UINT8 LEDRGB_8_led_en = 0; MX_UINT8 LEDRGB_8_led_tick = 0; MX_UINT8 LEDRGB_8_led_r = 0; MX_UINT8 LEDRGB_8_led_b = 0; MX_UINT8 LEDRGB_8_led_g = 0; //LEDRGB(1): //Macro function declarations void FCD_LEDRGB1_Enable(); void FCD_LEDRGB1_Disable(); void FCD_LEDRGB1_SetColor(MX_UINT8 red, MX_UINT8 green, MX_UINT8 blue); void FCD_LEDRGB1_Tick(); //EEPROM(0): //Defines: /**** Macro Substitutions **** Component has no substitutions ******************************/ #ifndef MX_EEPROM_REF #define MX_EEPROM_REF #ifdef FC_CAL_PIC16BIT extern MX_UINT16 FC_CAL_EE_Read (MX_UINT16 Address); extern void FC_CAL_EE_Write (MX_UINT16 Address, MX_UINT16 Data); #else extern MX_UINT8 FC_CAL_EE_Read (MX_UINT16 Address); extern void FC_CAL_EE_Write (MX_UINT16 Address, MX_UINT8 Data); #endif #endif //EEPROM(0): //Macro function declarations MX_UINT16 FCD_EEPROM0_EEPROMRead(MX_UINT16 addr); void FCD_EEPROM0_WriteEEPROM(MX_UINT16 addr, MX_UINT16 data); //LEDRGB(0): //Macro implementations void FCD_LEDRGB0_Enable() { LEDRGB_2_led_en = 1; #if (LEDRGB_2_LED_POLE == 0) FC_CAL_Bit_Low_DDR( LEDRGB_2_LED_PORT_R, LEDRGB_2_LED_TRIS_R, LEDRGB_2_LED_PIN_R ); FC_CAL_Bit_Low_DDR( LEDRGB_2_LED_PORT_G, LEDRGB_2_LED_TRIS_R, LEDRGB_2_LED_PIN_G ); FC_CAL_Bit_Low_DDR( LEDRGB_2_LED_PORT_B, LEDRGB_2_LED_TRIS_R, LEDRGB_2_LED_PIN_B ); #else FC_CAL_Bit_High_DDR( LEDRGB_2_LED_PORT_R, LEDRGB_2_LED_TRIS_R, LEDRGB_2_LED_PIN_R ); FC_CAL_Bit_High_DDR( LEDRGB_2_LED_PORT_G, LEDRGB_2_LED_TRIS_G, LEDRGB_2_LED_PIN_G ); FC_CAL_Bit_High_DDR( LEDRGB_2_LED_PORT_B, LEDRGB_2_LED_TRIS_B, LEDRGB_2_LED_PIN_B ); #endif } void FCD_LEDRGB0_Disable() { LEDRGB_2_led_en = 0; FC_CAL_Bit_In_DDR ( LEDRGB_2_LED_PORT_R, LEDRGB_2_LED_TRIS_R, LEDRGB_2_LED_PIN_R ); FC_CAL_Bit_In_DDR ( LEDRGB_2_LED_PORT_G, LEDRGB_2_LED_TRIS_G, LEDRGB_2_LED_PIN_G ); FC_CAL_Bit_In_DDR ( LEDRGB_2_LED_PORT_B, LEDRGB_2_LED_TRIS_B, LEDRGB_2_LED_PIN_B ); } void FCD_LEDRGB0_SetColor(MX_UINT8 red, MX_UINT8 green, MX_UINT8 blue) { LEDRGB_2_led_r = red >> LEDRGB_2_LED_SHIFT; LEDRGB_2_led_g = green >> LEDRGB_2_LED_SHIFT; LEDRGB_2_led_b = blue >> LEDRGB_2_LED_SHIFT; } void FCD_LEDRGB0_Tick() { if ( LEDRGB_2_led_en ) { if (LEDRGB_2_led_tick == 0) LEDRGB_2_led_tick = LEDRGB_2_LED_ROLLOVER; else LEDRGB_2_led_tick--; if (LEDRGB_2_led_tick < LEDRGB_2_led_r) { #if (LEDRGB_2_LED_POLE == 0) FC_CAL_Bit_High( LEDRGB_2_LED_PORT_R , LEDRGB_2_LED_PIN_R ); #else FC_CAL_Bit_Low( LEDRGB_2_LED_PORT_R , LEDRGB_2_LED_PIN_R ); #endif } else { #if (LEDRGB_2_LED_POLE == 0) FC_CAL_Bit_Low( LEDRGB_2_LED_PORT_R , LEDRGB_2_LED_PIN_R ); #else FC_CAL_Bit_High( LEDRGB_2_LED_PORT_R , LEDRGB_2_LED_PIN_R ); #endif } if (LEDRGB_2_led_tick < LEDRGB_2_led_b) { #if (LEDRGB_2_LED_POLE == 0) FC_CAL_Bit_High( LEDRGB_2_LED_PORT_B , LEDRGB_2_LED_PIN_B ); #else FC_CAL_Bit_Low( LEDRGB_2_LED_PORT_B , LEDRGB_2_LED_PIN_B ); #endif } else { #if (LEDRGB_2_LED_POLE == 0) FC_CAL_Bit_Low( LEDRGB_2_LED_PORT_B , LEDRGB_2_LED_PIN_B ); #else FC_CAL_Bit_High( LEDRGB_2_LED_PORT_B , LEDRGB_2_LED_PIN_B ); #endif } if (LEDRGB_2_led_tick < LEDRGB_2_led_g) { #if (LEDRGB_2_LED_POLE == 0) FC_CAL_Bit_High( LEDRGB_2_LED_PORT_G , LEDRGB_2_LED_PIN_G ); #else FC_CAL_Bit_Low( LEDRGB_2_LED_PORT_G , LEDRGB_2_LED_PIN_G ); #endif } else { #if (LEDRGB_2_LED_POLE == 0) FC_CAL_Bit_Low( LEDRGB_2_LED_PORT_G , LEDRGB_2_LED_PIN_G ); #else FC_CAL_Bit_High( LEDRGB_2_LED_PORT_G , LEDRGB_2_LED_PIN_G ); #endif } } } //ADC(0): //Macro implementations void FCD_ADC0_SampleADC() { //unused } MX_UINT8 FCD_ADC0_ReadAsByte() { MX_UINT8 retVal; //Configure & Enable ADC Channel FC_CAL_Enable_ADC ( ADC_3_MX_ADC_CHANNEL , ADC_3_MX_ADC_CONVSP , ADC_3_MX_ADC_VREFOP , ADC_3_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_3_MX_ADC_CHANNEL , ADC_3_MX_ADC_CONVSP , ADC_3_MX_ADC_VREFOP , ADC_3_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_3_MX_ADC_CHANNEL , ADC_3_MX_ADC_CONVSP , ADC_3_MX_ADC_VREFOP , ADC_3_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_3_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_3_MX_ADC_CHANNEL , ADC_3_MX_ADC_CONVSP , ADC_3_MX_ADC_VREFOP , ADC_3_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> LEDRGB_8_LED_SHIFT; LEDRGB_8_led_g = green >> LEDRGB_8_LED_SHIFT; LEDRGB_8_led_b = blue >> LEDRGB_8_LED_SHIFT; } void FCD_LEDRGB1_Tick() { if ( LEDRGB_8_led_en ) { if (LEDRGB_8_led_tick == 0) LEDRGB_8_led_tick = LEDRGB_8_LED_ROLLOVER; else LEDRGB_8_led_tick--; if (LEDRGB_8_led_tick < LEDRGB_8_led_r) { #if (LEDRGB_8_LED_POLE == 0) FC_CAL_Bit_High( LEDRGB_8_LED_PORT_R , LEDRGB_8_LED_PIN_R ); #else FC_CAL_Bit_Low( LEDRGB_8_LED_PORT_R , LEDRGB_8_LED_PIN_R ); #endif } else { #if (LEDRGB_8_LED_POLE == 0) FC_CAL_Bit_Low( LEDRGB_8_LED_PORT_R , LEDRGB_8_LED_PIN_R ); #else FC_CAL_Bit_High( LEDRGB_8_LED_PORT_R , LEDRGB_8_LED_PIN_R ); #endif } if (LEDRGB_8_led_tick < LEDRGB_8_led_b) { #if (LEDRGB_8_LED_POLE == 0) FC_CAL_Bit_High( LEDRGB_8_LED_PORT_B , LEDRGB_8_LED_PIN_B ); #else FC_CAL_Bit_Low( LEDRGB_8_LED_PORT_B , LEDRGB_8_LED_PIN_B ); #endif } else { #if (LEDRGB_8_LED_POLE == 0) FC_CAL_Bit_Low( LEDRGB_8_LED_PORT_B , LEDRGB_8_LED_PIN_B ); #else FC_CAL_Bit_High( LEDRGB_8_LED_PORT_B , LEDRGB_8_LED_PIN_B ); #endif } if (LEDRGB_8_led_tick < LEDRGB_8_led_g) { #if (LEDRGB_8_LED_POLE == 0) FC_CAL_Bit_High( LEDRGB_8_LED_PORT_G , LEDRGB_8_LED_PIN_G ); #else FC_CAL_Bit_Low( LEDRGB_8_LED_PORT_G , LEDRGB_8_LED_PIN_G ); #endif } else { #if (LEDRGB_8_LED_POLE == 0) FC_CAL_Bit_Low( LEDRGB_8_LED_PORT_G , LEDRGB_8_LED_PIN_G ); #else FC_CAL_Bit_High( LEDRGB_8_LED_PORT_G , LEDRGB_8_LED_PIN_G ); #endif } } } //EEPROM(0): //Macro implementations MX_UINT16 FCD_EEPROM0_EEPROMRead(MX_UINT16 addr) { return (FC_CAL_EE_Read (addr)); } void FCD_EEPROM0_WriteEEPROM(MX_UINT16 addr, MX_UINT16 data) { FC_CAL_EE_Write (addr, data); } #include "D:\Program Files\flowcode\CAL\includes.c" //Macro implementations //Starting funtions void FCM_Start_List() { //Call Component Macro //Call Component Macro: Disable() FCD_LEDRGB1_Disable(); //Call Component Macro //Call Component Macro: Disable() FCD_LEDRGB0_Disable(); //Delay //Delay: 20 ms delay_ms(20); //Call Component Macro //Call Component Macro: Enable() FCD_LEDRGB1_Enable(); //Call Component Macro //Call Component Macro: Enable() FCD_LEDRGB0_Enable(); //Call Component Macro //Call Component Macro: SetColor(0, 0, 0) FCD_LEDRGB1_SetColor(0, 0, 0); //Call Component Macro //Call Component Macro: V_Red=Read(0) FCV_V_RED = FCD_EEPROM0_EEPROMRead(0); //Call Component Macro //Call Component Macro: V_Green=Read(1) FCV_V_GREEN = FCD_EEPROM0_EEPROMRead(1); //Call Component Macro //Call Component Macro: V_Blue=Read(2) FCV_V_BLUE = FCD_EEPROM0_EEPROMRead(2); //Call Component Macro //Call Component Macro: V_Blue1=Read(3) FCV_V_BLUE1 = FCD_EEPROM0_EEPROMRead(3); //Call Component Macro //Call Component Macro: V_Green1=Read(4) FCV_V_GREEN1 = FCD_EEPROM0_EEPROMRead(4); //Call Component Macro //Call Component Macro: V_Red1=Read(5) FCV_V_RED1 = FCD_EEPROM0_EEPROMRead(5); //Call Component Macro //Call Component Macro: SetColor(0, 0, 0) FCD_LEDRGB0_SetColor(0, 0, 0); //Call Component Macro //Call Component Macro: SetColor(V_Red, V_Green, V_Blue) FCD_LEDRGB0_SetColor(FCV_V_RED, FCV_V_GREEN, FCV_V_BLUE); //Call Component Macro //Call Component Macro: SetColor(V_Red1, V_Green1, V_Blue1) FCD_LEDRGB1_SetColor(FCV_V_RED1, FCV_V_GREEN1, FCV_V_BLUE1); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB0_Tick(); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB1_Tick(); } void FCM_RGB2() { //Local variable definitions MX_UINT8 FCL_RGB2_BTN_CNT = (0x0); MX_BOOL FCL_RGB2_BTN = (0); MX_BOOL FCL_RGB2_BTN1 = (0); //Output //Output: false -> PORTA trisa = trisa & 0xF8; porta = (porta & 0xF8) | ((FCV_FALSE) & 0x07); //Output //Output: true -> A0 trisa = trisa & 0xFE; if ((FCV_TRUE)) porta = (porta & 0xFE) | 0x01; else porta = porta & 0xFE; //Output //Output: true -> A1 trisa = trisa & 0xFD; if ((FCV_TRUE)) porta = (porta & 0xFD) | 0x02; else porta = porta & 0xFD; //Output //Output: true -> A2 trisa = trisa & 0xFB; if ((FCV_TRUE)) porta = (porta & 0xFB) | 0x04; else porta = porta & 0xFB; //Delay //Delay: 500 ms delay_ms(255); delay_ms(245); //Output //Output: false -> PORTA trisa = trisa & 0xF8; porta = (porta & 0xF8) | ((FCV_FALSE) & 0x07); //Loop //Loop: While 1 while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB2_BTN1 = ((porta & 0x20) == 0x20); //Switch //Switch: .Btn_cnt? switch (FCL_RGB2_BTN_CNT) { case 1: { //Output //Output: true -> A1 trisa = trisa & 0xFD; if ((FCV_TRUE)) porta = (porta & 0xFD) | 0x02; else porta = porta & 0xFD; //Output //Output: false -> PORTA trisa = trisa & 0xFA; porta = (porta & 0xFA) | ((FCV_FALSE) & 0x05); //Loop //Loop: While .Btn = false while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB2_BTN1 = ((porta & 0x20) == 0x20); //Decision //Decision: .Btn1 = true? if (FCL_RGB2_BTN1 == FCV_TRUE) { //Goto RGB End //Goto Connection Point: [A]: A goto FCC_RGB2_A; } else { //Input //Input: A3 -> .Btn trisa = trisa | 0x08; FCL_RGB2_BTN = ((porta & 0x08) == 0x08); //Call Component Macro //Call Component Macro: V_Green1=ReadAsByte() FCV_V_GREEN1 = FCD_ADC0_ReadAsByte(); //Call Component Macro //Call Component Macro: SetColor(V_Red1, V_Green1, V_Blue1) FCD_LEDRGB1_SetColor(FCV_V_RED1, FCV_V_GREEN1, FCV_V_BLUE1); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB1_Tick(); } if ((FCL_RGB2_BTN == FCV_FALSE) == 0) break; } //Calculation //Calculation: // .Btn_cnt = 2 FCL_RGB2_BTN_CNT = 2; break; } case 2: { //Output //Output: true -> A2 trisa = trisa & 0xFB; if ((FCV_TRUE)) porta = (porta & 0xFB) | 0x04; else porta = porta & 0xFB; //Output //Output: false -> PORTA trisa = trisa & 0xFC; porta = (porta & 0xFC) | ((FCV_FALSE) & 0x03); //Loop //Loop: While .Btn = false while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB2_BTN1 = ((porta & 0x20) == 0x20); //Decision //Decision: .Btn1 = true? if (FCL_RGB2_BTN1 == FCV_TRUE) { //Goto RGB End //Goto Connection Point: [A]: A goto FCC_RGB2_A; } else { //Input //Input: A3 -> .Btn trisa = trisa | 0x08; FCL_RGB2_BTN = ((porta & 0x08) == 0x08); //Call Component Macro //Call Component Macro: V_Blue1=ReadAsByte() FCV_V_BLUE1 = FCD_ADC0_ReadAsByte(); //Call Component Macro //Call Component Macro: SetColor(V_Red1, V_Green1, V_Blue1) FCD_LEDRGB1_SetColor(FCV_V_RED1, FCV_V_GREEN1, FCV_V_BLUE1); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB1_Tick(); } if ((FCL_RGB2_BTN == FCV_FALSE) == 0) break; } //Calculation //Calculation: // .Btn_cnt = 0 FCL_RGB2_BTN_CNT = 0; break; } default: { //Output //Output: true -> A0 trisa = trisa & 0xFE; if ((FCV_TRUE)) porta = (porta & 0xFE) | 0x01; else porta = porta & 0xFE; //Output //Output: false -> PORTA trisa = trisa & 0xF9; porta = (porta & 0xF9) | ((FCV_FALSE) & 0x06); //Loop //Loop: While .Btn = false while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB2_BTN1 = ((porta & 0x20) == 0x20); //Decision //Decision: .Btn1 = true? if (FCL_RGB2_BTN1 == FCV_TRUE) { //Goto RGB End //Goto Connection Point: [A]: A goto FCC_RGB2_A; } else { //Input //Input: A3 -> .Btn trisa = trisa | 0x08; FCL_RGB2_BTN = ((porta & 0x08) == 0x08); //Call Component Macro //Call Component Macro: V_Red1=ReadAsByte() FCV_V_RED1 = FCD_ADC0_ReadAsByte(); //Call Component Macro //Call Component Macro: SetColor(V_Red1, V_Green1, V_Blue1) FCD_LEDRGB1_SetColor(FCV_V_RED1, FCV_V_GREEN1, FCV_V_BLUE1); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB1_Tick(); } if ((FCL_RGB2_BTN == FCV_FALSE) == 0) break; } //Calculation //Calculation: // .Btn_cnt = 1 FCL_RGB2_BTN_CNT = 1; } } //Delay //Delay: 300 ms delay_ms(255); delay_ms(45); } //RGB End //Connection Point: [A]: A FCC_RGB2_A: ; } void FCM_RGB1() { //Local variable definitions MX_UINT8 FCL_RGB1_BTN_CNT = (0x0); MX_BOOL FCL_RGB1_BTN = (0); MX_BOOL FCL_RGB1_BTN1 = (0); //Output //Output: false -> PORTA trisa = trisa & 0xF8; porta = (porta & 0xF8) | ((FCV_FALSE) & 0x07); //Output //Output: true -> A0 trisa = trisa & 0xFE; if ((FCV_TRUE)) porta = (porta & 0xFE) | 0x01; else porta = porta & 0xFE; //Output //Output: true -> A1 trisa = trisa & 0xFD; if ((FCV_TRUE)) porta = (porta & 0xFD) | 0x02; else porta = porta & 0xFD; //Output //Output: true -> A2 trisa = trisa & 0xFB; if ((FCV_TRUE)) porta = (porta & 0xFB) | 0x04; else porta = porta & 0xFB; //Delay //Delay: 500 ms delay_ms(255); delay_ms(245); //Output //Output: false -> PORTA trisa = trisa & 0xF8; porta = (porta & 0xF8) | ((FCV_FALSE) & 0x07); //Loop //Loop: While 1 while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB1_BTN1 = ((porta & 0x20) == 0x20); //Switch //Switch: .Btn_cnt? switch (FCL_RGB1_BTN_CNT) { case 1: { //Output //Output: true -> A1 trisa = trisa & 0xFD; if ((FCV_TRUE)) porta = (porta & 0xFD) | 0x02; else porta = porta & 0xFD; //Output //Output: false -> PORTA trisa = trisa & 0xFA; porta = (porta & 0xFA) | ((FCV_FALSE) & 0x05); //Loop //Loop: While .Btn = false while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB1_BTN1 = ((porta & 0x20) == 0x20); //Decision //Decision: .Btn1 = true? if (FCL_RGB1_BTN1 == FCV_TRUE) { //Goto RGB End //Goto Connection Point: [A]: A goto FCC_RGB1_A; } else { //Input //Input: A3 -> .Btn trisa = trisa | 0x08; FCL_RGB1_BTN = ((porta & 0x08) == 0x08); //Call Component Macro //Call Component Macro: V_Green=ReadAsByte() FCV_V_GREEN = FCD_ADC0_ReadAsByte(); //Call Component Macro //Call Component Macro: SetColor(V_Red, V_Green, V_Blue) FCD_LEDRGB0_SetColor(FCV_V_RED, FCV_V_GREEN, FCV_V_BLUE); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB0_Tick(); } if ((FCL_RGB1_BTN == FCV_FALSE) == 0) break; } //Calculation //Calculation: // .Btn_cnt = 2 FCL_RGB1_BTN_CNT = 2; break; } case 2: { //Output //Output: true -> A2 trisa = trisa & 0xFB; if ((FCV_TRUE)) porta = (porta & 0xFB) | 0x04; else porta = porta & 0xFB; //Output //Output: false -> PORTA trisa = trisa & 0xFC; porta = (porta & 0xFC) | ((FCV_FALSE) & 0x03); //Loop //Loop: While .Btn = false while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB1_BTN1 = ((porta & 0x20) == 0x20); //Decision //Decision: .Btn1 = true? if (FCL_RGB1_BTN1 == FCV_TRUE) { //Goto RGB End //Goto Connection Point: [A]: A goto FCC_RGB1_A; } else { //Input //Input: A3 -> .Btn trisa = trisa | 0x08; FCL_RGB1_BTN = ((porta & 0x08) == 0x08); //Call Component Macro //Call Component Macro: V_Blue=ReadAsByte() FCV_V_BLUE = FCD_ADC0_ReadAsByte(); //Call Component Macro //Call Component Macro: SetColor(V_Red, V_Green, V_Blue) FCD_LEDRGB0_SetColor(FCV_V_RED, FCV_V_GREEN, FCV_V_BLUE); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB0_Tick(); } if ((FCL_RGB1_BTN == FCV_FALSE) == 0) break; } //Calculation //Calculation: // .Btn_cnt = 0 FCL_RGB1_BTN_CNT = 0; break; } default: { //Output //Output: true -> A0 trisa = trisa & 0xFE; if ((FCV_TRUE)) porta = (porta & 0xFE) | 0x01; else porta = porta & 0xFE; //Output //Output: false -> PORTA trisa = trisa & 0xF9; porta = (porta & 0xF9) | ((FCV_FALSE) & 0x06); //Loop //Loop: While .Btn = false while (1) { //Input //Input: A5 -> .Btn1 trisa = trisa | 0x20; FCL_RGB1_BTN1 = ((porta & 0x20) == 0x20); //Decision //Decision: .Btn1 = true? if (FCL_RGB1_BTN1 == FCV_TRUE) { //Goto RGB End //Goto Connection Point: [A]: A goto FCC_RGB1_A; } else { //Input //Input: A3 -> .Btn trisa = trisa | 0x08; FCL_RGB1_BTN = ((porta & 0x08) == 0x08); //Call Component Macro //Call Component Macro: SetColor(V_Red, V_Green, V_Blue) FCD_LEDRGB0_SetColor(FCV_V_RED, FCV_V_GREEN, FCV_V_BLUE); //Call Component Macro //Call Component Macro: V_Red=ReadAsByte() FCV_V_RED = FCD_ADC0_ReadAsByte(); //Call Component Macro //Call Component Macro: Tick() FCD_LEDRGB0_Tick(); } if ((FCL_RGB1_BTN == FCV_FALSE) == 0) break; } //Calculation //Calculation: // .Btn_cnt = 1 FCL_RGB1_BTN_CNT = 1; } } //Delay //Delay: 300 ms delay_ms(255); delay_ms(45); } //RGB End //Connection Point: [A]: A FCC_RGB1_A: ; } void FCM_Mode() { //Local variable definitions MX_BOOL FCL_MODE_SAVE_BTN = (0); MX_BOOL FCL_MODE_MODE_BTN = (0); //Output //Output: false -> PORTA trisa = trisa & 0xF8; porta = (porta & 0xF8) | ((FCV_FALSE) & 0x07); //Output //Output: true -> A0 trisa = trisa & 0xFE; if ((FCV_TRUE)) porta = (porta & 0xFE) | 0x01; else porta = porta & 0xFE; //Output //Output: true -> A1 trisa = trisa & 0xFD; if ((FCV_TRUE)) porta = (porta & 0xFD) | 0x02; else porta = porta & 0xFD; //Output //Output: true -> A2 trisa = trisa & 0xFB; if ((FCV_TRUE)) porta = (porta & 0xFB) | 0x04; else porta = porta & 0xFB; //Delay //Delay: 500 ms delay_ms(255); delay_ms(245); //Output //Output: false -> PORTA trisa = trisa & 0xF8; porta = (porta & 0xF8) | ((FCV_FALSE) & 0x07); //Loop //Loop: While 1 while (1) { //Input //Input: A3 -> .Save_Btn trisa = trisa | 0x08; FCL_MODE_SAVE_BTN = ((porta & 0x08) == 0x08); //Input //Input: A5 -> .Mode_Btn trisa = trisa | 0x20; FCL_MODE_MODE_BTN = ((porta & 0x20) == 0x20); //Decision //Decision: .Mode_Btn = true? if (FCL_MODE_MODE_BTN == FCV_TRUE) { //Goto End Mode //Goto Connection Point: [A]: A goto FCC_Mode_A; } else { //Decision //Decision: .Save_Btn = true? if (FCL_MODE_SAVE_BTN == FCV_TRUE) { //Output //Output: false -> PORTA trisa = trisa & 0xF8; porta = (porta & 0xF8) | ((FCV_FALSE) & 0x07); //Call Component Macro //Call Component Macro: Write(0, V_Red) FCD_EEPROM0_WriteEEPROM(0, FCV_V_RED); //Output //Output: true -> A0 trisa = trisa & 0xFE; if ((FCV_TRUE)) porta = (porta & 0xFE) | 0x01; else porta = porta & 0xFE; //Delay //Delay: 100 ms delay_ms(100); //Call Component Macro //Call Component Macro: Write(1, V_Green) FCD_EEPROM0_WriteEEPROM(1, FCV_V_GREEN); //Output //Output: true -> A1 trisa = trisa & 0xFD; if ((FCV_TRUE)) porta = (porta & 0xFD) | 0x02; else porta = porta & 0xFD; //Delay //Delay: 100 ms delay_ms(100); //Call Component Macro //Call Component Macro: Write(2, V_Blue) FCD_EEPROM0_WriteEEPROM(2, FCV_V_BLUE); //Output //Output: true -> A2 trisa = trisa & 0xFB; if ((FCV_TRUE)) porta = (porta & 0xFB) | 0x04; else porta = porta & 0xFB; //Delay //Delay: 200 ms delay_ms(200); //Call Component Macro //Call Component Macro: Write(3, V_Blue1) FCD_EEPROM0_WriteEEPROM(3, FCV_V_BLUE1); //Output //Output: False -> A2 trisa = trisa & 0xFB; if ((FCV_FALSE)) porta = (porta & 0xFB) | 0x04; else porta = porta & 0xFB; //Delay //Delay: 100 ms delay_ms(100); //Call Component Macro //Call Component Macro: Write(4, V_Green1) FCD_EEPROM0_WriteEEPROM(4, FCV_V_GREEN1); //Output //Output: False -> A1 trisa = trisa & 0xFD; if ((FCV_FALSE)) porta = (porta & 0xFD) | 0x02; else porta = porta & 0xFD; //Delay //Delay: 100 ms delay_ms(100); //Call Component Macro //Call Component Macro: Write(5, V_Red1) FCD_EEPROM0_WriteEEPROM(5, FCV_V_RED1); //Output //Output: False -> A0 trisa = trisa & 0xFE; if ((FCV_FALSE)) porta = (porta & 0xFE) | 0x01; else porta = porta & 0xFE; //Delay //Delay: 500 ms delay_ms(255); delay_ms(245); // } else { } } } //End Mode //Connection Point: [A]: A FCC_Mode_A: ; //Calculation //Calculation: // .Mode_Btn = 0 FCL_MODE_MODE_BTN = 0; //Calculation //Calculation: // .Save_Btn = 0 FCL_MODE_SAVE_BTN = 0; //Delay //Delay: 100 ms delay_ms(100); } void main() { //Local variable definitions MX_UINT8 FCL_MAIN_MODE_CNT = (0x0); //Initialization ansel = 0; cmcon = 0x07; //Interrupt initialization code option_reg = 0xC0; //Call Macro //Call Macro: Start_List() FCM_Start_List(); //Loop //Loop: While 1 while (1) { //Switch //Switch: .Mode_cnt? switch (FCL_MAIN_MODE_CNT) { case 1: { //Call Macro //Call Macro: RGB1() FCM_RGB1(); //Calculation //Calculation: // .Mode_cnt = 2 FCL_MAIN_MODE_CNT = 2; break; } case 2: { //Call Macro //Call Macro: RGB2() FCM_RGB2(); //Calculation //Calculation: // .Mode_cnt = 0 FCL_MAIN_MODE_CNT = 0; break; } default: { //Call Macro //Call Macro: Mode() FCM_Mode(); //Calculation //Calculation: // .Mode_cnt = 1 FCL_MAIN_MODE_CNT = 1; } } //Delay //Delay: 300 ms delay_ms(255); delay_ms(45); } mainendloop: goto mainendloop; } void MX_INTERRUPT_MACRO(void) { }