static bool MakeDevices(uchar ibMon, uchar ibTrf)
{
memset(&mpboChannelsA, 0, sizeof(mpboChannelsA));
status bStatus = ReadCntMonCanTariff(ibDig, ibMon, ibTrf);
if ((bStatus == ST_BADDIGITAL) || (bStatus == ST_NOTSUPPORTED) || (bStatus == ST_NOTPRESENTED))
{
LoadCurrDigital(ibDig);
uchar c;
for (c=0; c<bCANALS; c++)
{
LoadPrevDigital(c);
if (CompareCurrPrevLines(ibDig, c) == true)
{
value4t vl = mpCntMonCan4T[c];
vl.bStatus = bStatus;
vl.mpdbValuesT[ibTrf] = 0;
vl.tiUpdate = *GetCurrTimeDate();
mpCntMonCan4T[c] = vl;
}
}
if (bStatus == ST_BADDIGITAL) { ShowLo(szNoLink); DelayInf(); }
return false;
}
else
{
LoadCurrDigital(ibDig);
uchar c;
for (c=0; c<bCANALS; c++)
{
LoadPrevDigital(c);
if (CompareCurrPrevLines(ibDig, c) == true)
{
if (mpboChannelsA[diPrev.ibLine] == true)
{
value4t vl = mpCntMonCan4T[c];
vl.bStatus = ST_OK;
vl.mpdbValuesT[ibTrf] = mpdbChannelsC[diPrev.ibLine];
vl.tiUpdate = *GetCurrTimeDate();
mpCntMonCan4T[c] = vl;
}
}
}
return true;
}
}
void NewLimits(void)
{
LoadCurrDigital(ibDig);
uchar c;
for (c=0; c<bCANALS; c++)
{
LoadPrevDigital(c);
if (CompareCurrPrevLines(ibDig, c) == true)
{
mpcwStartRelCan[c] = 0;
mpcwStartAbs16Can[c] = 0;
mpcdwStartAbs32Can[c] = 0;
mpboStartCan[c] = false;
if (UseBounds() && IsLimitsAux(GetDigitalDevice(c)))
{
mpcwStopCan[c] = 4 + mpcwStopAuxCan[c];
if (mpcwStopCan[c] > wHOURS-1) mpcwStopCan[c] = wHOURS-1;
}
else
{
mpcwStopCan[c] = 4;
}
}
}
SaveCache(&chStartRelCan);
SaveCache(&chStartAbs16Can);
SaveCache(&chStartAbs32Can);
SaveCache(&chStartCan);
SaveCache(&chStopCan);
}
static void ShowModemReadTimeCan(bool fShowTimeDate)
{
ShowHi(szTimeDate);
if (GetDigitalDevice(ibCan) == 0)
ShowLo(szNone);
else
{
LoadCurrDigital(ibCan);
ibPort = diCurr.ibPort;
if (LoadConnect(ibCan) == 0) return;
Clear();
if (mpboEnblCan[ibCan] == false)
{
sprintf(szHi+14,"%2u",ibCan+1);
ShowLo(szBlocked);
}
else
{
time2 ti2 = ReadTimeCan(ibCan);
if (ti2.fValid)
{
sprintf(szHi+14,"%2u",ibCan+1);
Clear();
(fShowTimeDate) ? ShowTimeDate(ti2.tiValue) : ShowDeltaTime(ti2.tiValue);
}
else Error();
}
SaveConnect();
}
}
ulong2 ReadSerialCan(uchar ibCan)
{
LoadCurrDigital(ibCan);
ibPort = diCurr.ibPort;
switch (diCurr.bDevice)
{
#ifndef SKIP_B
case 8:
case 2:
case 12: return ReadSerialCanB(ibCan);
#endif
#ifndef SKIP_C
case 3: return ReadSerialCanC(ibCan);
#endif
#ifndef SKIP_P
case 21: return ReadSerialCanP(ibCan);
#endif
default: return GetLong2Error();
}
}
void NewBoundsRel(uint wRel)
{
LoadCurrDigital(ibDig);
uchar c;
for (c=0; c<bCANALS; c++)
{
LoadPrevDigital(c);
if (CompareCurrPrevLines(ibDig, c) == true)
{
mpcwStartRelCan[c] = wRel;
}
}
SaveCache(&chStartRelCan);
}
void ResetLimitsAux(uchar ibDig)
{
LoadCurrDigital(ibDig);
uchar c;
for (c=0; c<bCANALS; c++)
{
LoadPrevDigital(c);
if (CompareCurrPrevLines(ibDig, c) == true)
{
mpcwStopAuxCan[c] = 0;
}
}
SaveCache(&chStopAuxCan);
}
bool SupportedExtended4T(uchar ibCan)
{
LoadCurrDigital(ibCan);
switch (diCurr.bDevice)
{
case 2: return true;
case 3: return true;
// case 13: return true;
case 21: return true;
default: return false;
}
}
void NewBoundsAbs32(ulong dwAbs)
{
LoadCurrDigital(ibDig);
uchar c;
for (c=0; c<bCANALS; c++)
{
LoadPrevDigital(c);
if (CompareCurrPrevLines(ibDig, c) == true)
{
mpboStartCan[c] = true;
mpcdwStartAbs32Can[c] = dwAbs;
}
}
SaveCache(&chStartCan);
SaveCache(&chStartAbs32Can);
}
bool ReadCntMonCanF_Buff(uchar ibMon, uchar ibCan)
{
Clear();
LoadCurrDigital(ibCan);
ibPort = diCurr.ibPort;
uchar i;
for (i=0; i<bMINORREPEATS; i++)
{
QueryBreakF();
InitPushPck();
PushChar(diCurr.bAddress);
PushChar(0);
PushChar((5+10+2) % 0x100);
PushChar((5+10+2) / 0x100);
PushChar(0xFD);
PushChar(bEXT_GETEXTENDED40);
PushChar(ibMon);
PushChar(0xFF);
PushChar(0xFF);
PushChar(0xFF);
PushChar(0xFF);
PushChar(0xFF);
PushChar(0xFF);
PushChar(0xFF);
PushChar(0xFF);
PckQueryIO(bHEADER+(1+2+2+8+6)*bCANALS+2, 5+10+2);
if (Input() == SER_GOODCHECK) break;
if (fKey == true) return false;
}
if (i == bMINORREPEATS) return false;
ShowPercent(100);
return true;
}
bool ReadCntMonCanF_Curr(uchar ibMon, uchar ibCan)
{
Clear();
LoadCurrDigital(ibCan);
ibPort = diCurr.ibPort;
uchar i;
for (i=0; i<bMINORREPEATS; i++)
{
QueryBreakF();
InitPushPck();
PushChar(diCurr.bAddress);
PushChar(0);
PushChar((5+3+2) % 0x100);
PushChar((5+3+2) / 0x100);
PushChar(0xFD);
PushChar(bEXT_GETEXTENDED42);
PushChar(ibMon);
PushChar(ibCan);
PckQueryIO(bHEADER+(1+2+2+8+6)+2, 5+3+2);
if (Input() == SER_GOODCHECK) break;
if (fKey == true) return false;
}
if (i == bMINORREPEATS) return false;
ShowPercent(100);
InitPop(bHEADER);
bStatus4 = PopChar();
PopChar(); PopChar();
PopChar(); PopChar();
dbValue4 = PopDouble();
Pop(&tiUpdate4, sizeof(time));
return true;
}
status ReadCntMonCanTariff(uchar ibMon, uchar ibCan, uchar ibTrf)
{
Clear();
LoadCurrDigital(ibCan);
ibPort = diCurr.ibPort;
switch (diCurr.bDevice)
{
case 2: return ReadCntMonCanTariffB(ibMon, ibTrf);
case 3: return ReadCntMonCanTariffC(ibMon, ibTrf);
// case 13: return ReadCntMonCanTariffK(ibMon, ibTrf);
case 21: return ReadCntMonCanTariffP(ibMon, ibTrf);
default: return ST4_NOTSUPPORTED;
}
}
static void ShowModemReadCntCurrCan(void)
{
if (GetDigitalDevice(ibCan) == 0)
ShowFloat(GetCntCurrImp(ibCan));
else
{
LoadCurrDigital(ibCan);
ibPort = diCurr.ibPort;
if (LoadConnect(ibCan) == 0) return;
Clear();
if (mpboEnblCan[ibCan] == false)
ShowLo(szBlocked);
else
{
double2 db2 = ReadCntCurrCan(ibCan);
(db2.fValid) ? ShowDouble(db2.dbValue) : Error();
}
SaveConnect();
}
}
void Automatic(uchar ibMin, uchar ibMax)
{
uchar i;
enKeyboard = KBD_POSTENTER;
ShowHi(szAutomatic);
Clear(); DelayInf();
for (ibPort=0; ibPort<bPORTS; ibPort++)
{
ShowPortDelayLo(ibPort);
DelayInf(); fKey = 0;
}
Clear();
InitConnectKey();
ibX = 0;
for (i=ibMin; i<ibMax; i++)
{
if (GetDigitalDevice(i) == 0) continue;
uchar bRes = 0;
LoadCurrDigital(i);
ibPort = diCurr.ibPort;
if (GetDigitalDevice(i) != 0)
{
if (StreamPortCan(GetDigitalPort(i),i) == 0)
{ bRes = 0xEE; break; }
}
ShowCanalNumber(i);
ShowProgress(12,(ulong)100*i/(bCANALS-1)); DelayInf();
if (LoadConnect(i) == 0) break;
Clear();
if (mpboEnblCan[i] == false)
{
ShowLo(szBlocked);
DelayMsg();
}
else switch (diCurr.bDevice)
{
#ifndef SKIP_A
case 15:
case 1: if (AutomaticA() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_B
case 12: if (AutomaticJ() != 1) bRes = 0xEE; break;
case 8:
case 2: if (AutomaticB() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_C
case 3: if (AutomaticC() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_D
case 4: if (AutomaticD() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_E
case 7:
case 5: if (AutomaticE() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_F
case 6: if (AutomaticF() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_G
case 9: if (AutomaticG() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_H
case 10: if (AutomaticH() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_I
case 11: if (AutomaticI() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_K
case 14:
case 13: if (AutomaticK() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_L
case 17:
case 16: if (AutomaticK() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_M
case 18: if (AutomaticM() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_N
case 19: if (AutomaticN() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_O
case 20: if (AutomaticO() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_P
case 21: if (AutomaticP() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_Q
case 22: if (AutomaticK() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_R
case 23: if (AutomaticR() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_S
case 24: if (AutomaticS() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_T
case 25: if (AutomaticT() != 1) bRes = 0xEE; break;
#endif
#ifndef SKIP_V
case 27: if (AutomaticV() != 1) bRes = 0xEE; break;
#endif
}
SaveConnect();
if (bRes == 0xEE)
{
ibX++;
Error(); Beep(); DelayMsg();
}
if (fKey == true) bRes = 0xFF;
fKey = 0;
if (bRes == 0xFF) break;
}
ShowHi(szAutomatic);
if (ibX != 0) { Clear(); sprintf(szLo+3, "ошибок: %-2u", ibX); LongBeep(); DelayMsg(); } else OK();
DelayMsg();
KeyBreakConnect();
SaveFactors();
}
time2 ReadTimeDate_Short(uchar ibCan)
{
LoadCurrDigital(ibCan);
ibPort = diCurr.ibPort;
switch (diCurr.bDevice)
{
#ifndef SKIP_A
case 15:
case 1: return ReadTimeDateA_Short();
#endif
#ifndef SKIP_B
case 8:
case 2: return ReadTimeDateB_Short();
case 12: return GetTime2(tiCurr, true);
#endif
#ifndef SKIP_C
case 3: return ReadTimeDateC_Short();
#endif
#ifndef SKIP_D
case 4: return( ReadTimeDateD_Short() ); break;
#endif
#ifndef SKIP_E
case 7:
case 5: return( ReadTimeDateE_Short() ); break;
#endif
#ifndef SKIP_F
case 6: return( ReadTimeDateF_Short() ); break;
#endif
#ifndef SKIP_G
case 9: return( ReadTimeDateG_Short() ); break;
#endif
#ifndef SKIP_H
case 10: return( ReadTimeDateH_Short() ); break;
#endif
#ifndef SKIP_I
case 11: return( ReadTimeDateI_Short() ); break;
#endif
#ifndef SKIP_K
case 14:
case 13: return( ReadTimeDateK_Short() ); break;
#endif
#ifndef SKIP_L
case 17:
case 16: tiAlt = tiCurr; return(1); break;
#endif
#ifndef SKIP_M
case 18: tiAlt = tiCurr; return(1); break;
#endif
#ifndef SKIP_N
case 19: tiAlt = tiCurr; return(1); break;
#endif
#ifndef SKIP_O
case 20: return( ReadTimeDateO_Short() ); break;
#endif
#ifndef SKIP_P
case 21: return ReadTimeDateP_Short();
#endif
#ifndef SKIP_Q
case 22: return( ReadTimeDateQ_Short() ); break;
#endif
#ifndef SKIP_R
case 23: tiAlt = tiCurr; return(1); break;
#endif
#ifndef SKIP_S
case 24: return ReadTimeDateS_Short();
#endif
#ifndef SKIP_T
case 25: return( ReadTimeDateT_Short() ); break;
#endif
#ifndef SKIP_U
case 26: return ReadTimeDateU_Short();
#endif
default: return GetTime2Error();
}
}