typedef unsigned char u8;
typedef signed char s8;
typedef unsigned short u16;
typedef signed short s16;
typedef unsigned long int u32;
typedef signed long int s32;
typedef unsigned short WORD;
typedef unsigned char BOOL;
#define PinWrite_ADSCLK(x) ( (x) ? (P0_bit.no6 = 1 , PM0_bit.no6 = 1) : (PM0_bit.no6 = 0 , P0_bit.no6 = 0) ) //
#define PinMode_ADSCLK(x) ( (x == GPIO_MODE_OUT) ? (PM0_bit.no6 = 0) : (PM0_bit.no6 = 1) )
#define PinRead_ADSDI() (P4_bit.no4)
#define PinWrite_ADSDO(x) ( (x) ? (P6_bit.no0 = 1 , PM6_bit.no0 = 1) : (PM6_bit.no0 = 0 , P6_bit.no0 = 0) ) //
#define PinWrite_ADCS(x) ( (x) ? (P6_bit.no1 = 1 , PM6_bit.no1 = 1) : (PM6_bit.no1 = 0 , P6_bit.no1 = 0 ) )
#define PinWrite_ADRST(x) ( (x) ? (P0_bit.no5 = 1 , PM0_bit.no5 = 1) : (PM0_bit.no5 = 0 , P0_bit.no5 = 0 ) )
typedef enum {ERROR = 0 , SUCCESS = !ERROR} ErrorStatus;
typedef struct {
// u32 Dat : 23;
// u32 S : 1;
u8 Dat0;
u8 Dat1;
u8 Dat2 : 7;
u8 S : 1;
} sDF09;
typedef struct {
u32 Dat;
} sDF11;
typedef sDF11 sFsEgSh_TypeDef;
#pragma vector = INTTM01_vect
__interrupt void MD_INTTM01(void)
{
TMIF01 = 0; /* INTTM01 interrupt flag clear */
SysStamp ++ ;
}
u16 fnStamp_Through(u16 Ago)
{
extern u16 SysStamp;
if (SysStamp >= Ago)
{return (SysStamp - Ago);}
else
{return ( (0xffff - Ago) + SysStamp);}
}
u16 fnHexToBcd_u16(u16 Dat)
{
u16 Result = 0;
Dat = Dat % 10000;
Result += (Dat / 1000) * 0x1000;
Dat = Dat % 1000;
Result += (Dat / 100) * 0x100;
Dat = Dat % 100;
Result += (Dat / 10) * 0x10;
Dat = Dat % 10;
Result += Dat;
return(Result);
}
u32 fnHexToBcd_u32(u32 Dat)
{
u32 result = 0;
Dat = Dat % 100000000;
result += (Dat / 10000000) * 0x10000000;
Dat = Dat % 10000000;
result += (Dat / 1000000) * 0x1000000;
Dat = Dat % 1000000;
result += (Dat / 100000) * 0x100000;
Dat = Dat % 100000;
result += (Dat / 10000) * 0x10000;
Dat = Dat % 10000;
result += (Dat / 1000) * 0x1000;
Dat = Dat % 1000;
result += (Dat / 100) * 0x100;
Dat = Dat % 100;
result += (Dat / 10) * 0x10;
Dat = Dat % 10;
result += Dat;
return(result);
}
u16 fnDFConver_Bcd16To16(s16 Dat)
{
u16 Result;
Result = abs(Dat) % 8000;
Result = fnHexToBcd_u16(Result);
if(Dat < 0 ) Result |= 0x8000;
else Result &= 0x7fff;
return(Result);
}
u32 fnDFConver_Bcd32To32(s32 Dat)
{
u32 Result;
Result = labs(Dat) % 80000000;
Result = fnHexToBcd_u32(Result);
if(Dat < 0 ) Result |= 0x80000000;
else Result &= 0x7fffffff;
return(Result);
}
sDF09 fnDFConver_Hex32ToDF09(s32 Dat)
{
sDF09 Result;
memset(&Result , 0 , sizeof(sDF09) );
if(Dat < 0) Result.S = 1;
else Result.S = 0;
Dat = labs(Dat) % 800000;
Dat = fnHexToBcd_u32(Dat);
Result.Dat0 = Dat;
Result.Dat1 = Dat >> 8;
Result.Dat2 = Dat >> 16;
return(Result);
}
typedef union //公共数据运算区8字节
{
u8 ucTempBuf[8];
u32 lTemp32;
u16 wTemp16;
u8 ucTemp8;
}sDl645StruDataComm_TypeDef;
__no_init sDl645StruDataComm_TypeDef Dl645RN8302DataComm;
__no_init sDl645FrontTmp_TypeDef Dl645FrontTmp;
__no_init sDl645Front_TypeDef Dl645Front;
__no_init sDl645Eg_TypeDef Dl645Eg;
__no_init sDl645FirmParaFile_TypeDef Dl645FirmPara;
typedef struct
{
u8 ChkErrCnt; //读错误计数1
s32 Pw[12]; //{Pa Pb Pc P Qa Qb Qc Q Sa Sb Sc S} 48
s32 UI[7]; //Ua Ub Uc Ia Ib Ic Inal 28
s32 VectorU[9]; // 正序、负序、零序电压
s32 VectorI[9]; // 正序、负序、零序电流
s32 Pf[4]; //Pf Pfa Pfb Pfc 16
u32 Frequency; //电网频率，单位： 4
s32 YUI[3],YUU[2]; //20
s32 Pulse[15]; //前台高频脉冲48
//---电能脉冲---
s32 Pulse_EgTmp[20]; //高频脉冲{P,Q,Ps},{Pa,Qa,Psa},{Pb,Qb,Psb},{Pc,Qc,Psc}{Fp,Fq}{Fpa,Fqa}{Fpb,Fqb}{Fpc,Fqc}
u32 Pulse_Eg[20]; //低频脉冲数
//---需量脉冲---
s32 Pulse_NeedTmp[12];
u16 Pulse_Need[12]; //{PNeed,QNeed,PsNeed},{PNeeda,QNeeda,PsNeeda},{PNeedb,QNeedb,PsNeedb},{PNeedc,QNeedc,PsNeedc}48
u16 Angle[9];
u16 PDirect; //4
u32 ChkSum1; //4
u32 ChkSum2; //4
u16 Temperature; //温度4
u32 ClockBat; //时钟电池4
u32 BackupBat; //后备电池4
u16 CF1DelayStamp;
u16 CF2DelayStamp;
u16 CfIn_P;
u16 CfIn_q;
u16 CfTime_P;
u16 CfTime_q;
} sDl645FrontTmp_TypeDef;
typedef struct
{
struct sFrontPubData_TypeDef {
u16 U[3]; //---电压---NNN.N6
u16 VectorU[9]; // 正序电压 0--2 负序电压 3---5 零序电压 6---8
u32 I[4]; //---电流NNNN.NNNN(电流值要求3整3小，整定值要求2整4小，最高位表示方向)---16
u32 VectorI[9]; // 正序电流 0--2 负序电流 3---5 零序电流 6---8
sDF09 Pw[12]; //---瞬时有功/无功/视在功率NN.NNNN---{P Pa Pb Pc Q Qa Qb Qc S Sa Sb Sc}36
u16 Pf[4]; //---功率因数N.NNN--- 最高位表示方向{Pf Pfa Pfb Pfc} 8 sDF05
u16 Angle[9]; //---相角NNN.N--- 18
//PhUb,PhUc, 以A相电压为基准，B、C相角度 //(hyg) BCD码
//PhIa,PhIb,PhIc,A相电流与A相电压间角度、B相电流与B相电压间角度、C相电流与C相电压间角度
//Angle A,Angle B,Angle C, A相电流与A相电压间角度、B相电流与A相电压间角度、C相电流与A相电压间角度
//Angle C-Angle A
u32 UnblU; //电压不平衡度NNNN.NN%4
u32 UnblI; //电流不平衡度NNNN.NN%4
u16 FuzzyU[3]; //---电压波形失真度NN.NN%--- 6
u16 FuzzyI[3]; //---电流波形失真度NN.NN%--- 6
u16 WaveU[3][21]; //---相电压谐波含量NN.NN%--- 126
u16 WaveI[3][21]; //---相电流谐波含量NN.NN%--- 126
//---其他---
u16 Frequency; //NN.NN 2
u32 PPwave; //NN.NNNN 4
u16 Temperature; //NNN.N 2
u16 ClockBat; //NN.NN 2
u16 BackupBat; //NN.NN 2
u8 PDirect; //原功率方向，用于需量处理(0总/1A/2B/3C , 注意与FrontTmp不同) 1
} PubData;
struct sFrontPriData_TypeDef {
u8 Flag; //---工作异常标志---1
u8 PhaseCalStep;
u16 FrontStamp;
// u8 BatCalStep;
u16 BatStamp;
// u16 BatDetStamp;
} PriData;
struct sFrontPriPara_TypeDef {
u32 PConstE; //有功常数
u32 QConstE; //无功常数(Hex码)4
u16 Crc;//2
} PriPara;
} sDl645Front_TypeDef; //缓冲区转换后的有效数据
typedef struct
{
u8 FractionI;/*电流小数位数*/
u8 FractionU;/*电压小数位数*/
u8 FractionE;/*电能小数位数*/
u8 FractionP;/*功率需量小数位数*/
u16 ConstE;/*电表有功常数*/
u16 Pulse_deltaE;/*数*/
u8 HighPulseRate;
u8 PhaseCalStep;
u32 IRmsConst; //10
u16 Reserve[2];
u16 NOLOAD;
u16 ZEROSTAR; //20
u32 ChkSum1;
u16 HFConst1;
u16 HFConst2;
u32 VRmsConst; //30
u16 Reserve1;
u32 PRmsConst;
u16 Reserve2;
u16 VGain[3]; // 42
u16 IGain[4]; //48
u8 PHSU[2]; // 56
u32 PHSI[3];
u16 PRth[4]; //70
u16 UI_Offset[7];
u16 P_PHS[3];/*有功相位校正寄存器*/ // 92
u16 PGain[3];/*有功增益校正寄存器*/
}sDl645FirmParaFile_TypeDef;
typedef struct {
#pragma pack(1)
struct sDl645EgPubData_TypeDef
{
sFsEgSh_TypeDef AllPEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef PtPEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef NtPEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef AllQEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef PtQEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef NtQEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef Qd1QEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef Qd2QEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef Qd3QEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef Qd4QEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef PtPsEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef NtPsEgSh[DL645_MAX_FL + 1];
sFsEgSh_TypeDef AssEgSh;
sFsEgSh_TypeDef BasePtPEgSh;
sFsEgSh_TypeDef BaseNtPEgSh;
sFsEgSh_TypeDef WavePtPEgSh;
sFsEgSh_
