ATT7053单相电表开发案例

#include <stdio.h> #include <stdlib.h> #include <ctype.h> #include <string.h> #include <intrins.h> #include <math.h> #include "ATT7025.h" #include "lcdDrive.h" #include "EepromDrv.h" #include "uart1.h" #include "COMDPROC.H" #include "Emu.h" #include "ATT7051.h" #if 1 unsigned char BITADDRESS0 _at_ 0x20; unsigned char BITADDRESS1 _at_ 0x21; unsigned char BITADDRESS2 _at_ 0x22; unsigned char BITADDRESS3 _at_ 0x23; //qq #define CLEAR_ZERO_AVAILABILITY BITADDRESS0&=0x0DF // //qq #define SET_ZERO_AVAILABILITY BITADDRESS0|=0x20 //qq #define GET_ZERO_AVAILABILITY BITADDRESS0&0x20 #define CLEAR_E_INCREASE_FLAG BITADDRESS0&=0x07F// #define SET_E_INCREASE_FLAG BITADDRESS0|=0x80 #define GET_E_INCREASE_FLAG BITADDRESS0&0x80 #define CLEAR_BATTERY_TESTING_FLAG BITADDRESS2&=0x7F// #define SET_BATTERY_TESTING_FLAG BITADDRESS2|=0x80 #define GET_BATTERY_TESTING_FLAG BITADDRESS2&0x80 #define CLEAR_BATTERY_VOLTAGE_LOW_FLAG BITADDRESS2&=0x0DF// #define SET_BATTERY_VOLTAGE_LOW_FLAG BITADDRESS2|=0x20 #define GET_BATTERY_VOLTAGE_LOW_FLAG BITADDRESS2&0x20 #define CLEAR_SUB_MODE_FLAG BITADDRESS2&=0x0FB #define SET_SUB_MODE_FLAG BITADDRESS2|=0x04 #define GET_SUB_MODE_FLAG BITADDRESS2&0x04 #define CLEAR_ENABLE_WR_EEPROM_FLAG BITADDRESS2&=0x0FD #define SET_ENABLE_WR_EEPROM_FLAG BITADDRESS2|=0x02 #define GET_ENABLE_WR_EEPROM_FLAG BITADDRESS2&0x02 #define CLEAR_X_SIGN BITADDRESS3&=0x0FB #define SET_X_SIGN BITADDRESS3|=0x04 #define GET_X_SIGN BITADDRESS3&0x04 #define CLEAR_POS_SIGN BITADDRESS3&=0x0F7 #define SET_POS_SIGN BITADDRESS3|=0x08 #define GET_POS_SIGN BITADDRESS3&0x08 #endif //qq STATUS_t StateWord; uchar TamperFlage=false,I2MeasFlage=false,PSMFlag=true,PowerDownFlag = false; unsigned char InterfacePage; unsigned char TEMP[16]; unsigned char NotCal=true;//qq 2009.04.15 unsigned char T20msFlag=0,T100msFlag=0, T500msFlag=0,T1sFlag=0,T10sFlag=0; unsigned int xdata PP,QQ,RR,SS; unsigned long xdata PPPP,QQQQ,RRRR,SSSS; float xdata xxx,yyy,zzz; unsigned char xdata I1_SOS[3],I2_SOS[3],P_SOS[2]; unsigned char LVD_Yes_Timer; unsigned char BattTestTimer; unsigned char POWER_UP_TIMER; unsigned char BatFlashTimer; unsigned char QQ_CLOCK; unsigned char Test_EN_Timer; unsigned char ant_CLOCK; unsigned char COUNTER_for_10ms; unsigned char UART0_RxBUF_POINTER_1; unsigned char UART0_RxBUF_POINTER_2; unsigned char UART0_RxBUF_POINTER_x; unsigned char UART0_RxBUF_POINTER_y; unsigned char UART0_TxBUF_POINTER_1; //***********************************************************************************************/ void DelayTime(unsigned int len) { for(;len>0;len--); } void Init_MCU52(void) { RegWrEn(); //qq CLKCFG |= 0x02;//SYSCK1=1,fsys=fpri CLKCFG |=0x06;//fsys=fpri=5529600Hz // FMCFG |= 0x04; //BROMEN=1,enable Monitor rom // FMCFG |= 0xE0; // RegWrDis(); // (Autobaud); // EICON |= 0x20; //BREAK PONIT IE RegWrEn(); LCDCFG = 0x3F; //configure PA,PB,PC,with LCD output P02CFG = 0x00; //configure P0 with GPIO, P2 with UART0,UART1,LVDIN,SF,PF,QF P3CFG = 0x0A; //INT1=1;IRTX1=1,enable TX1 38K TCON |= 0x04;//Int1 triggered on falling edge //qq SUPDC = 0x4B;//enable EMU,BOR,LCD; disable TPS,LVD,I2C,SPI SUPDC = 0x01; // FMCFG |= 0xE0; // IE = 0x46; // SUPDC = SUPDC | 0x10; //close bor } void Init_T0(void) { TH0 = 0xF5; //mode1,1ms timer TL0 = 0xD2; } void InitIo(void) { P0 = 0x00; P1 = 0x00; P2 = 0x00; P3 = 0x00; PTA = 0x00; PTB = 0x00; PTC = 0x00; PTD = 0x00; PTE = 0x01; DDRA = 0xFF; DDRB = 0xFF; DDRC = 0xFF; DDRD = 0x00; DDRE = 0x01; DDRP0 = 0x00; DDRP1 = 0x00; DDRP2 = 0x0E3; DDRP3 = 0x43; } #if 1 void FunCLEAR_POS_SIGN(void) { CLEAR_POS_SIGN; } void FunSET_POS_SIGN(void) { SET_POS_SIGN; } #endif void InitRamDat(void) { uchar i; SYSSCR = 0x16; //qq CLEAR_ZERO_AVAILABILITY; CLEAR_E_INCREASE_FLAG; CLEAR_P_SIGN; CLEAR_Q_SIGN; CLEAR_BATTERY_TESTING_FLAG; CLEAR_BATTERY_VOLTAGE_LOW_FLAG; CLEAR_ENABLE_WR_EEPROM_FLAG; CLEAR_X_SIGN; CLEAR_POS_SIGN; BatFlashTimer = 0; Test_EN_Timer = 0; LVD_Yes_Timer = 0; BattTestTimer = 0; ant_CLOCK = 0; QQ_CLOCK = 0; COUNTER_for_10ms = 0; clsLDAT(); clsAllLcd(); InterfacePage = 1; for(i=0;i<3;i++) { I1_SOS[i] = 0; I2_SOS[i] = 0; P_SOS[i] = 0; } for(i=0;i<64;i++) { UART0_RxBUF[i] = 0; UART0_TxBUF[i] = 0; UART1_RxBUF[i] = 0; UART1_TxBUF[i] = 0; } UART0_TxBUF_CON = 1; UART0_TxBUF_LEN = 0; UART1_TxBUF_CON = 1; UART1_TxBUF_LEN = 0; RdEeBytes(EE_PFCNT, &CntDat.chard[0], 6); RdEeBytes(EE_METER_ADDR, &gMeterPara.meterAddr[0], 10);//Addr+password RdEeBytes(EE_EP_BCD, Energy.chard, 12);//EP,EQ,ES memcpy(Energy_bak.chard, Energy.chard, 12); } //*********************************************************************************/ /*温度补偿显示*/ void wrTemperatuerToInterface(void) { uchar i; char Tdata; uint kk,jj; CLEAR_X_SIGN; Tdata = TEMPDR; if(Tdata<0){ SET_X_SIGN; i = -Tdata; } else{ i = Tdata; } kk = i; jj = (uint)CalData.Item.Toff-62.5*kk; i = (uchar)(jj>>8); TEMP[4] = i; if(GET_X_SIGN) { if(i>9){ displayChar(9, CHAR_negativ); displayChar(10, i/10); displayChar(11, i%10); } else{ displayChar(10, CHAR_negativ); displayChar(11, i); } } else { if(i>9){ displayChar(10, i/10); displayChar(11, i%10); } else{ displayChar(11, i); } } } #if 0 void UpdateStateWord(void) { uchar Tmp; if(T1sFlag) { Tmp = RSTSR; } } #endif void UpdateInterface(void) { uchar xdata Tempbuf[4]; pageToInterface(InterfacePage); switch(InterfacePage) { case 23 : if(GET_I2ANGLE_SIGN) {displayIcon(Icon_Left,1);} else {displayIcon(Icon_Right,1);} Tempbuf[1] = ((Ept.Angle_I2%1000000)/100000)*0x10 + (Ept.Angle_I2%100000)/10000; Tempbuf[2] = ((Ept.Angle_I2%10000)/1000)*0x10 + (Ept.Angle_I2%1000)/100; Tempbuf[3] = ((Ept.Angle_I2%100)/10)*0x10 + (Ept.Angle_I2%10); wrFormat1ToInterface(&Tempbuf[1]); break; case 22 : if(GET_I1ANGLE_SIGN) {displayIcon(Icon_Left,1);} else {displayIcon(Icon_Right,1);} Tempbuf[1] = ((Ept.Angle_I1%1000000)/100000)*0x10 + (Ept.Angle_I1%100000)/10000; Tempbuf[2] = ((Ept.Angle_I1%10000)/1000)*0x10 + (Ept.Angle_I1%1000)/100; Tempbuf[3] = ((Ept.Angle_I1%100)/10)*0x10 + (Ept.Angle_I1%10); wrFormat1ToInterface(&Tempbuf[1]); break; case 21 : displayIcon(Icon_kw,1); if(GET_P1_SIGN) {displayIcon(Icon_Left,1);} else {displayIcon(Icon_Right,1);} Tempbuf[1] = ((Ept.Power_P1%1000000)/100000)*0x10 + (Ept.Power_P1%100000)/10000; Tempbuf[2] = ((Ept.Power_P1%10000)/1000)*0x10 + (Ept.Power_P1%1000)/100; Tempbuf[3] = ((Ept.Power_P1%100)/10)*0x10 + (Ept.Power_P1%10); wrFormat1ToInterface(&Tempbuf[1]); break; case 20 : if(GET_Q1_SIGN) {displayIcon(Icon_Left,1);} else {displayIcon(Icon_Right,1);} Tempbuf[1] = ((Ept.Power_Q1%1000000)/100000)*0x10 + (Ept.Power_Q1%100000)/10000; Tempbuf[2] = ((Ept.Power_Q1%10000)/1000)*0x10 + (Ept.Power_Q1%1000)/100; Tempbuf[3] = ((Ept.Power_Q1%100)/10)*0x10 + (Ept.Power_Q1%10); wrFormat1ToInterface(&Tempbuf[1]); break; case 19 : displayIcon(Icon_kw,1); displayIcon(Icon_h,1); Tempbuf[0] = ((Ept.Energy_P%100000000)/10000000)*0x10 + (Ept.Energy_P%10000000)/1000000; Tempbuf[1] = ((Ept.Energy_P%1000000)/100000)*0x10 + (Ept.Energy_P%100000)/10000; Tempbuf[2] = ((Ept.Energy_P%10000)/1000)*0x10 + (Ept.Energy_P%1000)/100; Tempbuf[3] = ((Ept.Energy_P%100)/10)*0x10 + (Ept.Energy_P%10); wrFormat3ToInterface(Tempbuf); break; case 18 : Tempbuf[0] = ((Ept.Energy_Q%100000000)/10000000)*0x10 + (Ept.Energy_Q%10000000)/1000000; Tempbuf[1] = ((Ept.Energy_Q%1000000)/100000)*0x10 + (Ept.