motor_ctl-1/2.MotorDrive/Source/alarm.c

/************************************************************************
Project:             Welling Motor Control Paltform
Filename:            alarm.c
 Partner Filename:    alarm.h
 Description:         System fault detection and diagnosis
Complier:            IAR Embedded Workbench for ARM 7.80, IAR Systems.
CPU TYPE :           GD32F3x0
*************************************************************************
Copyright (c) 2018 Welling Motor Technology(Shanghai) Co. Ltd.
All rights reserved.
*************************************************************************
*************************************************************************
Revising History (ECL of this file):

************************************************************************/

/************************************************************************
Beginning of File, do not put anything above here except notes
Compiler Directives:
*************************************************************************/
#ifndef _ALARM_C_
#define _ALARM_C_
#endif

/************************************************************************
Included File:
*************************************************************************/
#include "syspar.h"
#include "user.h"
#include "FSM_1st.h"
#include "FSM_2nd.h"
#include "spdctrFSM.h"
#include "power.h"
#include "emcdeal.h"
#include "canAppl.h"
#include "hwsetup.h"
#include "UserGpio_Config.h"
/************************************************************************
Private Variables:
************************************************************************/
UWORD alm_pvt_uwResPwrWt = 0;
_Bool  alm_pvt_blIPMOTReCheckFlg = FALSE;
_Bool  alm_pvt_blMotorOTReCheckFlg = FALSE;
SWORD alm_pvt_swSpdRefAbsPu = 0;
SWORD alm_pvt_swSpdFbAbsPu = 0;
SLONG alm_pvt_slSpdFbLpfAbsPu = 0;
SWORD alm_pvt_swSpdFbLpfAbsPu = 0;
SWORD alm_pvt_swIqRefAbsPu = 0;
SLONG alm_pvt_slIqRefLpfAbsPu = 0;
SWORD alm_pvt_swIqRefLpfAbsPu = 0;
_Bool  alm_pvt_blTbcFirstFlg = FALSE;
_Bool  alm_pvt_blTbsFirstFlg = FALSE;
SWORD alm_pvt_swRtLockPwrRatio = 0;
static ULONG alm_pvt_ulWarn2ErrorCount = 0;
_Bool  alm_pvt_blCadFltPowerUpFlg = FALSE;
IABCSTRUCT alm_I_Filter;
/************************************************************************
Constant Table:
*************************************************************************/

/************************************************************************
Exported Functions:
*************************************************************************/

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voInit(void)
{
    /* Alarm code and flag init */
    alm_unCode.all = 0;
    alm_unBikeCode.all = 0;
    alm_blAlmOccrFlg = FALSE;
    alm_blWarnOccrFlg = FALSE;

    /* Alarm action init */
    alm_unAction.all = 0;

    /* Alarm handle fsm init */
    alm_enFSMStatus = Alm_Stop;
    alm_enBikeFSMStatus = Alm_Stop;

    /* Clear stop count */
    alm_stStopCt.ulThrPhsShrtFrc = 0;
    alm_stStopCt.ulPWMOff = 0;
    alm_stStopCt.ulThrPhsShrt = 0;
    alm_stStopCt.uwRotorStopCnt = 0;
    alm_stStopCt.ulPWMOffShrtSw = 0;
    alm_stStopCt.ulShrtPWMOffSw = 0;
    alm_stStopCt.ulBikePWMOff = 0;

    /* Alarm recover count init */
    alm_stRecCt.ulGlbl = 0;
    alm_stRecCt.ulOvrVlt = 0;
    alm_stRecCt.ulOvrVlt1 = 0;
    alm_stRecCt.ulUndrVlt = 0;
    alm_stRecCt.ulUndrVlt1 = 0;
    alm_stRecCt.ulIPMOvrHeat = 0;
    alm_stRecCt.ulIPMOvrHeat1 = 0;
    alm_stRecCt.ulIPMOC = 0;
    alm_stRecCt.ulBikeGlbl = 0;
    alm_stRecCt.ulBikeSpdFlt = 0;
    alm_stRecCt.ulCadenceFlt = 0;
    alm_stRecCt.ulTorqFlt = 0;
    alm_stRecCt.ulThrottleFlt = 0;
    alm_stRecCt.ulPCBNTCFlt = 0;
    alm_stRecCt.ulMotorNTCFlt = 0;

    /* Alarm detect count init */
    alm_stDecCt.ulIPMOvrHeat = 0;
    alm_stDecCt.ulIPMOvrHeat1 = 0;
    alm_stDecCt.ulOvrCur = 0;
    alm_stDecCt.ulOvrSpd = 0;
    alm_stDecCt.ulOvrVltLvl1 = 0;
    alm_stDecCt.ulPhsALoss = 0;
    alm_stDecCt.ulPhsBLoss = 0;
    alm_stDecCt.ulPhsCLoss = 0;
    alm_stDecCt.slRotorLock = 0;
    alm_stDecCt.ulUndrVltLvl1 = 0;
    alm_stDecCt.uwBikeSpdFlt = 0;
    alm_stDecCt.uwCadenceFlt = 0;
    alm_stDecCt.uwTorqFlt = 0;
    alm_stDecCt.uwThrottleFlt = 0;
    alm_stDecCt.uwPCBNTCFlt = 0;
    alm_stDecCt.uwMotorNTCFlt = 0;
    alm_stDecCt.uwBrakeFlt = 0;

    /* Private variables init */
    alm_pvt_blIPMOTReCheckFlg = FALSE;
    alm_pvt_blMotorOTReCheckFlg = FALSE;
    alm_I_Filter.ulIa_Filter=0;
    alm_I_Filter.ulIb_Filter=0;
    alm_I_Filter.ulIc_Filter=0;
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voCoef(void)
{
    alm_stDetectTbcCoefIn.uwIbAp = IBASE;
    alm_stDetectTbcCoefIn.uwUbVt = VBASE;
    alm_stDetectTbcCoefIn.uwFTbcHz = FTBC_HZ;
    alm_stDetectTbcCoefIn.uwPairs = cp_stMotorPara.swMotrPolePairs;
    alm_stDetectTbcCoefIn.uwMtRsOm = cp_stMotorPara.swRsOhm;
    alm_stDetectTbcCoefIn.uwFbHz = FBASE;
    alm_stDetectTbcCoefIn.uwOvrCurIa = cp_stControlPara.swAlmOverCurrentVal;
    alm_stDetectTbcCoefIn.uwOvrCurTu = cp_stControlPara.swAlmOverCurrentTM;
    alm_stDetectTbcCoefIn.uwAdcDetHigVt = cp_stControlPara.swAlmAdcDetectHighVal;
    alm_stDetectTbcCoefIn.uwAdcDetLowVt = cp_stControlPara.swAlmAdcDetectLowVal;
    alm_stDetectTbcCoefIn.uwPhsLossVt = cp_stControlPara.swAlmPhsLossVal;
    alm_stDetectTbcCoefIn.uwPhsLossTs = cp_stControlPara.swAlmPhsLossTM;
    alm_stDetectTbcCoefIn.uwRotorLockSpdK = cp_stControlPara.swAlmRotorLockK;
    alm_stDetectTbcCoefIn.uwRotorLockTs = cp_stControlPara.swAlmRotorLockTM;
    alm_stDetectTbcCoefIn.swIqRefLpfAbsAp = cp_stControlPara.swAlmRotorLockCurVal;
    alm_stDetectTbcCoefIn.swSpdFbLpfAbsRpm = cp_stControlPara.swAlmRotorLockSpdVal;
    alm_voDetecTBCCoef(&alm_stDetectTbcCoefIn, &alm_stDetectTbcCoef);

    alm_stDetectTbsCoefIn.uwPairs = cp_stMotorPara.swMotrPolePairs;
    alm_stDetectTbsCoefIn.uwFbHz = FBASE;
    alm_stDetectTbsCoefIn.uwFTbsHz = FTBS_HZ;
    alm_stDetectTbsCoefIn.uwUbVt = VBASE;
    alm_stDetectTbsCoefIn.uwOvrVlt1Vt = cp_stControlPara.swAlmOverVolVal1;
    alm_stDetectTbsCoefIn.uwOvrVlt1Tm = cp_stControlPara.swAlmOverVolTM1;
    alm_stDetectTbsCoefIn.uwUndrVlt1Vt = cp_stControlPara.swAlmUnderVolVal1;
    alm_stDetectTbsCoefIn.uwUndrVlt1Tm = cp_stControlPara.swAlmUnderVolTM1;
    alm_stDetectTbsCoefIn.uwOvrSpdRpm = cp_stControlPara.swAlmOverSpdVal;
    alm_stDetectTbsCoefIn.uwOvrSpdTm = cp_stControlPara.swAlmOverSpdTM;
    alm_stDetectTbsCoefIn.uwIpmOvrHeatRecCe = cp_stControlPara.swAlmRecOHeatVal;
    alm_stDetectTbsCoefIn.uwIpmOvrHeatTs = cp_stControlPara.swAlmOverHeatTM;
    alm_stDetectTbsCoefIn.uwIpmOvrHeatCe = cp_stControlPara.swAlmOverHeatCeVal;
    alm_stDetectTbsCoefIn.uwMotorOvrHeatRecCe = cp_stControlPara.swAlmMotorRecOHeatVal;
    alm_stDetectTbsCoefIn.uwMotorOvrHeatTs = ALM_MOTOR_OVR_TM;
    alm_stDetectTbsCoefIn.uwMotorOvrHeatCe = cp_stControlPara.swAlmMotorOverHeatCeVal;
    alm_voDetecTBSCoef(&alm_stDetectTbsCoefIn, &alm_stDetectTbsCoef);

    alm_stStopTbcCoefIn.uwIbAp = IBASE;
    alm_stStopTbcCoefIn.uwUbVt = VBASE;
    alm_stStopTbcCoefIn.uwFTbcHz = FTBC_HZ;
    alm_stStopTbcCoefIn.uwThrPhsShrtFrcTs = cp_stControlPara.swAlmThrPhsShrtFrcTM;
    alm_stStopTbcCoefIn.uwIPMOverCurStopTs = cp_stControlPara.swAlmIPMOverCurStopTM;
    alm_stStopTbcCoefIn.uwPwmoffShrt1SwTs = cp_stControlPara.swAlmPWMOffShrtsw1TM;
    alm_stStopTbcCoefIn.uwShrtPwmoffSwTs = cp_stControlPara.swAlmShrtPWMOffswTM;
    alm_stStopTbcCoefIn.uwPwmOffTs = cp_stControlPara.swAlmPWMOffTM;
    alm_stStopTbcCoefIn.uwThrPhsShrtTs = cp_stControlPara.swAlmThrPhsShrtNormTM;
    alm_stStopTbcCoefIn.uwOvrVlt1Vt = cp_stControlPara.swAlmOverVolVal1;
    alm_voStopTBCCoef(&alm_stStopTbcCoefIn, &alm_stStopTbcCoef);

    alm_stResetCoefIn.uwUbVt = VBASE;
    alm_stResetCoefIn.uwFTbcHz = FTBC_HZ;
    alm_stResetCoefIn.uwRecAllTs = cp_stControlPara.swAlmRecAllTM;
    alm_stResetCoefIn.uwIpmOcRecTs = cp_stControlPara.swAlmRecOCTM;
    alm_stResetCoefIn.uwOvrVltRecVt = cp_stControlPara.swAlmRecOVVal;
    alm_stResetCoefIn.uwOvrVltRecTs = cp_stControlPara.swAlmRecOVTM;
    alm_stResetCoefIn.uwUndrVltRecVt = cp_stControlPara.swAlmRecUVVal;
    alm_stResetCoefIn.uwUndrVltRecTs = cp_stControlPara.swAlmRecUVTM;
    alm_stResetCoefIn.uwIpmOvrHeatRecCe = cp_stControlPara.swAlmRecOHeatVal;
    alm_stResetCoefIn.uwIpmOvrHeatRecTs = cp_stControlPara.swAlmRecOHeatTM;
    alm_stResetCoefIn.uwIpmOvrHeatRec1Ts = cp_stControlPara.swAlmRecOHeatTM1;
    alm_stResetCoefIn.uwMotorOvrHeatRecCe = cp_stControlPara.swAlmMotorRecOHeatVal;
    alm_stResetCoefIn.uwMotorOvrHeatRecTs = cp_stControlPara.swAlmRecOHeatTM;
    alm_stResetCoefIn.uwMotorOvrHeatRec1Ts = cp_stControlPara.swAlmRecOHeatTM1;
    alm_voResetCoef(&alm_stResetCoefIn, &alm_stResetCoef);

    alm_stDetect200MSCoefIn.swMotorSpdMinRpm = ALM_MOTORSPD_MIN_RPM;
    alm_stDetect200MSCoefIn.uwTorqMinNm = ALM_TROQ_MIN_Nm;
    alm_stDetect200MSCoefIn.uwBikeSpdFltTs = ALM_BIKESPD_FLT_TS;
    alm_stDetect200MSCoefIn.uwCadenceFltTs = ALM_CADENCE_FLT_TS;
    alm_stDetect200MSCoefIn.uwFbHz = FBASE;
    alm_stDetect200MSCoefIn.uwFT200MSHz = 5 ;
    alm_stDetect200MSCoefIn.uwMotorNTCFltTs = ALM_MOTORNTC_FLT_TS; 
    alm_stDetect200MSCoefIn.uwPairs = cp_stMotorPara.swMotrPolePairs;
    alm_stDetect200MSCoefIn.uwPCBNTCFltTs =  ALM_PCBNTC_FLT_TS;
    alm_stDetect200MSCoefIn.uwThrottleFltTs = ALM_THROTTLE_FLT_TS;
    alm_stDetect200MSCoefIn.uwTorqFltTs = ALM_TORQ_FLT_TS;  
    alm_stDetect200MSCoefIn.uwTorqMaxVol = ALM_TORQ_MAX_VOL;
    alm_stDetect200MSCoefIn.uwTorqMinVol = ALM_TORQ_MIN_VOL;
    alm_stDetect200MSCoefIn.uwThrottleMaxVol = ALM_THROTTLE_MAX_VOL;
    alm_stDetect200MSCoefIn.uwThrottleMinVol =ALM_THROTTLE_MIN_VOL;
    alm_stDetect200MSCoefIn.uwNTCMaxVol = ALM_NTC_MAX_VOL;
    alm_stDetect200MSCoefIn.uwNTCMinVol = ALM_NTC_MIN_VOL;
    alm_voDetec200MSCoef(&alm_stDetect200MSCoefIn, &alm_stDetect200MSCoef);
    
    alm_stReset1MSCoefIn.uwBikeGlblTm = ALM_BIKE_REC_ALL_TM;
    alm_stReset1MSCoefIn.uwBikeSpdFltTm = ALM_BIKESPD_REC_TM;
    alm_stReset1MSCoefIn.uwCadenceFltTm = ALM_CADENCE_REC_TM;
    alm_stReset1MSCoefIn.uwFT1MSHz = 1000;
    alm_stReset1MSCoefIn.uwMotorNTCFltTm = ALM_MOTORNTC_REC_TM;
    alm_stReset1MSCoefIn.uwPCBNTCFltTm = ALM_PCBNTC_REC_TM;
    alm_stReset1MSCoefIn.uwThrottleFltTm = ALM_THROTTLE_REC_TM;
    alm_stReset1MSCoefIn.uwTorqFltTm = ALM_TORQ_REC_TM;
    alm_voReset1MSCoef(&alm_stReset1MSCoefIn, &alm_stReset1MSCoef);
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voDetecTBCCoef(ALM_DETECTBC_COFIN *in, ALM_DETECTBC_COF *out)
{
    UWORD uwRbOm;

    if (in->uwIbAp < 1)
    {
        in->uwIbAp = 1;
    }

    if (in->uwFbHz < 1)
    {
        in->uwFbHz = 1;
    }
    uwRbOm = (ULONG)in->uwUbVt * 100000 / in->uwIbAp;                           /* unit: 0.01Ohm, Resistance base */
    out->uwRsPu = ((ULONG)in->uwMtRsOm << 15) / uwRbOm;                         /* Q15, Phase resistance */
    out->uwPbWt = (ULONG)in->uwUbVt * in->uwIbAp * 3 / 100 >> 1;                /* unit: 0.1w, Power base */
    out->ulOvrCurValPu = ((ULONG)in->uwOvrCurIa << 14) / in->uwIbAp;            // CUR_AP2PU(x)  (((ULONG)(x)<<14)/IBASE)        Q14
    out->ulOvrCurValCt = ((ULONG)in->uwOvrCurTu * in->uwFTbcHz / 1000000) >> 1; // TBC_US2CT(x)  ((ULONG)(x)*FTBC_HZ/1000000)
    out->slAdcDetHigValPu = ((SLONG)in->uwAdcDetHigVt * 4096 / 330);            //_IQ12(A)      (SLONG)(A * 4096L)
    out->slAdcDetLowValPu = ((SLONG)in->uwAdcDetLowVt * 4096 / 330);
    out->ulPhsLossValPu = ((ULONG)in->uwPhsLossVt << 14) / in->uwIbAp;
    out->ulPhsLossValCt = ((ULONG)in->uwPhsLossTs * in->uwFTbcHz) >> 1; // TBC_S2CT(x)   ((ULONG)(x)*FTBC_HZ)
    out->slRotorLockSpdK = ((SLONG)in->uwRotorLockSpdK * 1024 / 100);   //_IQ10(0.5)    (SLONG)(A * 1024L)
    out->slRotorLockValCt = ((ULONG)in->uwRotorLockTs * in->uwFTbcHz) >> 1;
    out->slIqRefLpfAbsValPu = ((SLONG)in->swIqRefLpfAbsAp << 14) / in->uwIbAp; // CUR_AP2PU(x)  (((ULONG)(x)<<14)/IBASE)
    out->slSpdFbLpfAbsValPu = ((SLONG)in->swSpdFbLpfAbsRpm << 15) / 60 * in->uwPairs / in->uwFbHz;
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voDetecTBC(ALM_IN *in, ALM_DETECTBC_COF *coef)
{
    SWORD swTmp1, swTmp2;
    
    /* MicroFault Handle */
//    if(clasB_unFaultCode.all != 0) 
//    {
//        alm_unAction.bit.PWMOff = TRUE;
//        //alm_unCode.bit.MCUErr   = TRUE;
//    }
    /*=======================================================================
    IPM fault
    =======================================================================*/
  if(alm_unCode.bit.IPMFlt==TRUE)//  if (MCU_BRKIN_FLG) //
    {
        alm_unAction.bit.ThrPhsShrtFrc = TRUE;
//        alm_unCode.bit.IPMFlt = TRUE;
    }

    if (alm_pvt_blTbcFirstFlg == TRUE)
    {
        /*=======================================================================
        Software Over current
        =======================================================================*/
#if 0//(EMCDEAL_EN!=0)
        if(EcmDeal.EmcModeFlag==TRUE)
       {
            alm_stDecCt.ulOvrCur=0;
       }
       else
#endif
 //      {
//        if (in->blADCInitOvrFlg)
//        {
//            if (curSpeed_state.state != Stop)
//            {
//                if (in->uwIpeakPu > coef->ulOvrCurValPu) //
//                {
//                    alm_stDecCt.ulOvrCur++;
//                    if (alm_stDecCt.ulOvrCur >= coef->ulOvrCurValCt) // 500us
//                    {
//                        alm_stDecCt.ulOvrCur = coef->ulOvrCurValCt;
//                        alm_unAction.bit.PWMOff = TRUE;
//                        alm_unCode.bit.OvrCur = TRUE;
//                    }
//                }
//                else
//                {
//                    alm_stDecCt.ulOvrCur = 0;
//                }
//            }
//            else
//            {
//                alm_stDecCt.ulOvrCur = 0;
//            }
//        }
 //      }
        /*=======================================================================
        ADC Self Detecting Fault
        =======================================================================*/
        //    if (in->blADCInitOvrFlg)
        //    {
        //      if((in->uwIdcOffset >= coef->slAdcDetHigValPu)||(in->uwIdcOffset <= coef->slAdcDetLowValPu))
        //      {
        //        alm_unAction.bit.ThrPhsShrt = TRUE;
        //        alm_unCode.bit.ADCOffsetFlt = TRUE;
        //      }
        //    }
        /*=======================================================================
        Over load
        =======================================================================*/

        /*=======================================================================
        Phase loss
        =======================================================================*/
        if (curSpeed_state.state != Stop)
        {

            alm_I_Filter.ulIa_Filter=(in->uwIaAbsPu +alm_I_Filter.ulIa_Filter*7)>>3;
            alm_I_Filter.ulIb_Filter=(in->uwIbAbsPu +alm_I_Filter.ulIb_Filter*7)>>3;
            alm_I_Filter.ulIc_Filter=(in->uwIcAbsPu +alm_I_Filter.ulIc_Filter*7)>>3;
           // if (scm_swIqRefPu > 150 || scm_swIqRefPu < -150)
          //  {
              if((cp_stBikeRunInfoPara.BikeSpeedKmH>70) &&(MC_RunInfo.BusCurrent>5000))//70-7km/h
            {
                if (alm_I_Filter.ulIa_Filter < coef->ulPhsLossValPu) // 1A
                {
                    alm_stDecCt.ulPhsALoss++;
                }
                else
                {
                    alm_stDecCt.ulPhsALoss = 0;
                }
                if (alm_I_Filter.ulIb_Filter < coef->ulPhsLossValPu)
                {
                    alm_stDecCt.ulPhsBLoss++;
                }
                else
                {
                    alm_stDecCt.ulPhsBLoss = 0;
                }
                if (alm_I_Filter.ulIc_Filter < coef->ulPhsLossValPu)
                {
                    alm_stDecCt.ulPhsCLoss++;
                }
                else
                {
                    alm_stDecCt.ulPhsCLoss = 0;
                }
            }
              else
              {
                  alm_stDecCt.ulPhsALoss = 0;
                  alm_stDecCt.ulPhsBLoss = 0;
                  alm_stDecCt.ulPhsCLoss = 0;

              }
           // }

            if (alm_stDecCt.ulPhsALoss >= coef->ulPhsLossValCt || alm_stDecCt.ulPhsBLoss >= coef->ulPhsLossValCt ||
                alm_stDecCt.ulPhsCLoss >= coef->ulPhsLossValCt) // 5s
            {
                alm_stDecCt.ulPhsALoss = coef->ulPhsLossValCt;
                alm_stDecCt.ulPhsBLoss = coef->ulPhsLossValCt;
                alm_stDecCt.ulPhsCLoss = coef->ulPhsLossValCt;
//                alm_unAction.bit.PWMOff = TRUE;
                // alm_unAction.bit.ThrPhsShrt = TRUE;
                alm_unCode.bit.PhsLoss = TRUE;
            }
        }
        else
        {
            alm_stDecCt.ulPhsALoss = 0;
            alm_stDecCt.ulPhsBLoss = 0;
            alm_stDecCt.ulPhsCLoss = 0;
        }

        /*=======================================================================
        Set AlmTbcDetectFlg
        =======================================================================*/
        alm_pvt_blTbcFirstFlg = FALSE;
    }
    else
    {
        /*=======================================================================
        Rotor lock  for position sensor: switchhall
        =======================================================================*/
        if(cp_stFlg.ThetaGetModelSelect == ANG_SWITCHHALL)
        {
            if (curSpeed_state.state == ClzLoop) 
            {
                if(abs(in->swIqRefPu) > coef->slIqRefLpfAbsValPu && in->uwSpdFbkLpfAbsPu < coef->slSpdFbLpfAbsValPu) 
                {                  
                    alm_stDecCt.slRotorLock++;
                    if (alm_stDecCt.slRotorLock >= coef->slRotorLockValCt)
                    {
                        alm_stDecCt.slRotorLock = coef->slRotorLockValCt;
//                        alm_unAction.bit.PWMOff = TRUE;
                        alm_unCode.bit.RotorLock = TRUE;
                    }
                }
                else
                {
                    alm_stDecCt.slRotorLock = 0;
                }
            }
        }
//        else if(cp_stFlg.ThetaGetModelSelect == ANG_OBSERVER)
//        {
//            /*=======================================================================
//            Rotor lock  for sensorless
//            =======================================================================*/
//            alm_pvt_swSpdRefAbsPu = in->uwSpdRefAbsPu; // Q15
//
//            alm_pvt_swIqRefAbsPu = abs(in->swIqRefPu);
//            alm_pvt_slIqRefLpfAbsPu = (SLONG)0x0010 * (alm_pvt_swIqRefAbsPu - alm_pvt_swIqRefLpfAbsPu) + alm_pvt_slIqRefLpfAbsPu; // Q30
//            alm_pvt_swIqRefLpfAbsPu = alm_pvt_slIqRefLpfAbsPu >> 15;
//
//            alm_pvt_swSpdFbAbsPu = in->uwSpdFbkLpfAbsPu;                                                                          // Q15
//            alm_pvt_slSpdFbLpfAbsPu = (SLONG)0x0010 * (alm_pvt_swSpdFbAbsPu - alm_pvt_swSpdFbLpfAbsPu) + alm_pvt_slSpdFbLpfAbsPu; // Q30
//            alm_pvt_swSpdFbLpfAbsPu = alm_pvt_slSpdFbLpfAbsPu >> 15;                                                              // Q15
//
//            if (((curSpeed_state.state == ClzLoop) || (curSpeed_state.state == StartUp)) && (in->uwSpdRefAbsPu > 0))
//            {
//                swTmp1 = (in->swIalhpaPu * in->swIalhpaPu + in->swIbetaPu * in->swIbetaPu) >> 14; // Q14=Q14+Q14-Q14
//                swTmp2 = swTmp1 * coef->uwRsPu >> 14;                                             // Q15=Q14+Q15-Q14
//                alm_pvt_uwResPwrWt = swTmp2 * coef->uwPbWt >> 15;                                 // unit: 0.1w
//                if ((in->swMotorPwrInWt > 0) && (alm_pvt_swIqRefLpfAbsPu > coef->slIqRefLpfAbsValPu) &&
//                    (alm_pvt_swSpdFbLpfAbsPu < coef->slSpdFbLpfAbsValPu))
//                {
//                    alm_pvt_swRtLockPwrRatio = (SWORD)((SLONG)alm_pvt_uwResPwrWt * 100 / in->swMotorPwrInWt);
//                    if (alm_pvt_uwResPwrWt > (coef->slRotorLockSpdK * in->swMotorPwrInWt >> 10)) // k = 0.5
//                    {
//                        alm_stDecCt.slRotorLock++;
//                        if (alm_stDecCt.slRotorLock >= coef->slRotorLockValCt) // 4s
//                        {
//                            alm_stDecCt.slRotorLock = coef->slRotorLockValCt;
//                            // alm_unAction.bit.ThrPhsShrt = TRUE;
//                            alm_unAction.bit.PWMOff = TRUE;
//                            alm_unCode.bit.RotorLock = TRUE;
//                        }
//                    }
//                    else
//                    {
//                        alm_stDecCt.slRotorLock--;
//                        if (alm_stDecCt.slRotorLock < 0)
//                        {
//                            alm_stDecCt.slRotorLock = 0;
//                        }
//                    }
//                }
//                else
//                {
//                    alm_stDecCt.slRotorLock = 0;
//                }
//            }
//            else
//            {
//                alm_stDecCt.slRotorLock = 0;
//            }
//
//        }


        /*=======================================================================
        Set AlmTbcDetectFlg
        =======================================================================*/
        alm_pvt_blTbcFirstFlg = TRUE;
    }

    /*========================== Alarm flag set ===========================*/
    //if((alm_unCode.bit.OvrCur == 1) || (alm_unCode.bit.IPMFlt == 1) || (alm_unCode.bit.MCUErr == 1))
    if((alm_unCode.bit.OvrCur == 1) || (alm_unCode.bit.IPMFlt == 1))
    {
        alm_blAlmOccrFlg = TRUE;
    }
    else if ((alm_unCode.all != 0) || (alm_unBikeCode.all != 0))
    {
        alm_blWarnOccrFlg = TRUE;

        if(alm_pvt_ulWarn2ErrorCount > 24000)
        {
            alm_blAlmOccrFlg = TRUE;
        }
        else
        {
            alm_pvt_ulWarn2ErrorCount++;
        }
    }
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voDetecTBSCoef(ALM_DETECTBS_COFIN *in, ALM_DETECTBS_COF *out)
{
    if (in->uwFbHz < 1)
    {
        in->uwFbHz = 1;
    }

    if (in->uwUbVt < 1)
    {
        in->uwUbVt = 1;
    }

    out->ulOvrVltLvl1ValPu = ((ULONG)in->uwOvrVlt1Vt << 14) / in->uwUbVt;
    out->ulOvrVltLvl1ValCt = ((ULONG)in->uwOvrVlt1Tm * in->uwFTbsHz / 1000) >> 1;// TBS_S2CT(x)   ((ULONG)(x)*FTBS_HZ)
    out->ulUndrVltLvl1ValPu = ((ULONG)in->uwUndrVlt1Vt << 14) / in->uwUbVt;
    out->ulUndrVltLvl1ValCt = ((ULONG)in->uwUndrVlt1Tm * in->uwFTbsHz / 1000) >> 1; // TBS_MS2CT(x)     ((ULONG)(x)*FTBS_HZ/1000)
    out->slOvrSpdValPu = ((SLONG)in->uwOvrSpdRpm << 15) / 60 * in->uwPairs /
                         in->uwFbHz; // SPD_RPM2PU(x)    (((SLONG)(x)<<15)/60*MOTOR_PAIRS/FBASE)	/* rpm to Pu(Q15) */
    out->ulOvrSpdValCt = ((ULONG)in->uwOvrSpdTm * in->uwFTbsHz / 1000) >> 1;
    out->uwIPMOvrHeatRecValCe = in->uwIpmOvrHeatRecCe;
    out->ulIPMOvrHeatValCt = ((ULONG)in->uwIpmOvrHeatTs * in->uwFTbsHz) >> 1;
    out->uwIPMOvrHeatValCe = in->uwIpmOvrHeatCe;
    out->uwMotorOvrHeatRecValCe = in->uwMotorOvrHeatRecCe;
    out->ulMotorOvrHeatValCt = ((ULONG)in->uwMotorOvrHeatTs * in->uwFTbsHz) >> 1;
    out->uwMotorOvrHeatValCe = in->uwMotorOvrHeatCe;
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voDetecTBS(ALM_IN *in, ALM_DETECTBS_COF *coef)
{
    if (alm_pvt_blTbsFirstFlg == FALSE)
    {

        /*=======================================================================
        Over voltage
        =======================================================================*/
        if (in->uwVdcPu > coef->ulOvrVltLvl1ValPu) // 45V
        {
            alm_stDecCt.ulOvrVltLvl1++;
            if (alm_stDecCt.ulOvrVltLvl1 >= coef->ulOvrVltLvl1ValCt) // 1ms
            {
                alm_stDecCt.ulOvrVltLvl1 = coef->ulOvrVltLvl1ValCt;
                // alm_unAction.bit.ThrPhsShrt = TRUE;
                alm_unCode.bit.OvrVlt = TRUE;
//                alm_unAction.bit.PWMOff = TRUE;
            }
        }
        else
        {
            alm_stDecCt.ulOvrVltLvl1 = 0;
        }
 
        /*=======================================================================
        Under voltage
        =======================================================================*/
        if (in->uwVdcCompPu < coef->ulUndrVltLvl1ValPu) // 160v
        {
            alm_stDecCt.ulUndrVltLvl1++;
            if (alm_stDecCt.ulUndrVltLvl1 >= coef->ulUndrVltLvl1ValCt) // 1000ms
            {
                alm_stDecCt.ulUndrVltLvl1 = coef->ulUndrVltLvl1ValCt;
//                alm_unAction.bit.PWMOff = TRUE;
                alm_unCode.bit.UndrVlt = TRUE;
//                alm_unAction.bit.PWMOff = TRUE;
            }
        }
        else
        {
            alm_stDecCt.ulUndrVltLvl1 = 0;
        }

        alm_pvt_blTbsFirstFlg = TRUE;
    }
    else
    {
        /*=======================================================================
        Over speed
        =======================================================================*/
        if (in->uwSpdFbkLpfAbsPu > coef->slOvrSpdValPu) // 6000rpm
        {
            alm_stDecCt.ulOvrSpd++;
            if (alm_stDecCt.ulOvrSpd >= coef->ulOvrSpdValCt) // 100ms
            {
                alm_stDecCt.ulOvrSpd = coef->ulOvrSpdValCt;
//                alm_unAction.bit.ThrPhsShrt = TRUE;
                alm_unCode.bit.OvrSpd = TRUE;
            }
        }
        else
        {
            alm_stDecCt.ulOvrSpd = 0;
        }

        /*=======================================================================
        over heat
        =======================================================================*/
        if (alm_pvt_blIPMOTReCheckFlg == TRUE)
        {
            if (in->swIPMTempCe > coef->uwIPMOvrHeatRecValCe) // 70
            {
                alm_stDecCt.ulIPMOvrHeat1++;
                if (alm_stDecCt.ulIPMOvrHeat1 >= coef->ulIPMOvrHeatValCt) // 2s
                {
                    alm_stDecCt.ulIPMOvrHeat1 = coef->ulIPMOvrHeatValCt;
                    // alm_unAction.bit.ThrPhsShrt = TRUE;
//                    alm_unAction.bit.PWMOff = TRUE;
                    alm_unCode.bit.IPMOvrHeat = TRUE;
                }
            }
            else
            {
                alm_stDecCt.ulIPMOvrHeat1 = 0;
            }
        }
        else
        {
            if (in->swIPMTempCe > coef->uwIPMOvrHeatValCe) // 85
            {
                alm_stDecCt.ulIPMOvrHeat++;
                if (alm_stDecCt.ulIPMOvrHeat >= coef->ulIPMOvrHeatValCt) // 2s
                {
                    alm_stDecCt.ulIPMOvrHeat = coef->ulIPMOvrHeatValCt;
                    // alm_unAction.bit.ThrPhsShrt = TRUE;
//                    alm_unAction.bit.PWMOff = TRUE;
                    alm_unCode.bit.IPMOvrHeat = TRUE;
                    alm_pvt_blIPMOTReCheckFlg = TRUE;
                }
            }

            else
            {
                alm_stDecCt.ulIPMOvrHeat = 0;
            }
        }
        
        /*=======================================================================
        Motor over heat
        =======================================================================*/
        if (alm_pvt_blMotorOTReCheckFlg == TRUE)
        {
            if (in->uwMotorTempCe > coef->uwMotorOvrHeatRecValCe) // 70
            {
                alm_stDecCt.ulMotorOvrHeat1++;
                if (alm_stDecCt.ulMotorOvrHeat1 >= coef->ulMotorOvrHeatValCt) // 2s
                {
                    alm_stDecCt.ulMotorOvrHeat1 = coef->ulMotorOvrHeatValCt;
                    // alm_unAction.bit.ThrPhsShrt = TRUE;
//                    alm_unAction.bit.PWMOff = TRUE;
                    alm_unCode.bit.MotorOvrHeat = TRUE;
                }
            }
            else
            {
                alm_stDecCt.ulMotorOvrHeat1 = 0;
            }
        }
        else
        {
            if (in->uwMotorTempCe > coef->uwMotorOvrHeatValCe) // 85
            {
                alm_stDecCt.ulMotorOvrHeat++;
                if (alm_stDecCt.ulMotorOvrHeat >= coef->ulMotorOvrHeatValCt) // 2s
                {
                    alm_stDecCt.ulMotorOvrHeat = coef->ulMotorOvrHeatValCt;
                    // alm_unAction.bit.ThrPhsShrt = TRUE;
//                    alm_unAction.bit.PWMOff = TRUE;
                    alm_unCode.bit.MotorOvrHeat = TRUE;
                    alm_pvt_blMotorOTReCheckFlg = TRUE;
                }
            }
            else
            {
                alm_stDecCt.ulMotorOvrHeat = 0;
            }
        }
        /*=======================================================================
        Hall loss // MPS position loss
        =======================================================================*/
        if(cp_stFlg.ThetaGetModelSelect == ANG_SWITCHHALL)
        {
            if(((in->uwSectorNum == 0)||(in->uwSectorNum == 7)))
            {
                alm_stDecCt.ulHallLoss ++;
            }
            else
            {
                alm_stDecCt.ulHallLoss = 0;
            }
        }
        else
        {
            alm_stDecCt.ulHallLoss = 0;
        }

#if 0//(EMCDEAL_EN != 0)
    if(EcmDeal.EmcModeFlag==TRUE)
      {
        alm_stDecCt.ulHallLoss=0;
      }
      else

#endif
        {
        #if(EMCDEAL_EN!=0)
        if(alm_stDecCt.ulHallLoss >= 2) 
        #else
        if(alm_stDecCt.ulHallLoss >= 50)      //250ms
        #endif
        {
            alm_stDecCt.ulHallLoss = 0;
//            alm_unAction.bit.PWMOff = TRUE;
            alm_unCode.bit.HallLoss = TRUE;
        }
        }
        // cp_stHistoryPara.uwPosSensorAlamTimes++;
        
        /*=======================================================================
        Communication over time
        =======================================================================*/
//        if (uart_bCommOvrTmFlg)
//        {
//            alm_unAction.bit.PWMOff = TRUE;
//            // alm_unAction.bit.ThrPhsShrt = TRUE;
//            alm_unCode.bit.CommOvrTm = TRUE;
//        }
        alm_pvt_blTbsFirstFlg = FALSE;
    }
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voHandleTBC(ALM_IN *in)
{
    /* Alarm occur */
    if (alm_blAlmOccrFlg)
    {
        /* mircfault */
//        if(clasB_unFaultCode.all)
//        {
//            if(scm_stSpdFbkLpf.slY.sw.hi < SPD_RPM2PU(10))//puֵ Լ10rpm
//            {
//                NVIC_SystemReset();
//            }
//        }
        /* Alarm handle FSM */
        switch (alm_enFSMStatus)
        {
        case Alm_Stop:
            alm_voStopTBC(in, &alm_stStopTbcCoef); /* Stop in TBC */
            if (cmfsm_stFlg.blMotorStopFlg)
            {
                sysfsm_stFlg.blFSMRstOvrFlg = FALSE;       /* Enable control mode FSM reset */
                sysfsm_stFlg.blCtrlMdVarClcOvrFlg = FALSE; /* Enable control mode variable clear */
                alm_enFSMStatus = Alm_VarClc;
            }
            break;
        case Alm_VarClc:
            if (sysfsm_stFlg.blFSMRstOvrFlg && sysfsm_stFlg.blCtrlMdVarClcOvrFlg)
            {
                alm_enFSMStatus = Alm_Reset;
            }
            break;
        case Alm_Reset:
            alm_voReset(in, &alm_stResetCoef);
            break;
        default:
            break;
        }
    }
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voHandleTBS(ALM_IN *in)
{
    /* Alarm occur */
    if (alm_blAlmOccrFlg)
    {
        /* Alarm handle FSM */
        switch (alm_enFSMStatus)
        {
        case Alm_Stop:
            //      alm_voStopTBS(); /* Stop in TBS */
            break;
        case Alm_VarClc:
            break;
        case Alm_Reset:
            //      alm_voReset(in,&alm_stResetCoef);
            break;
        default:
            break;
        }
    }
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voStopTBCCoef(ALM_STOPTBC_COFIN *in, ALM_STOPTBC_COF *out)
{
    if (in->uwIbAp < 1)
    {
        in->uwIbAp = 1;
    }
    if (in->uwUbVt < 1)
    {
        in->uwUbVt = 1;
    }
    out->ulThrPhsShrtFrcValCt = ((ULONG)in->uwThrPhsShrtFrcTs * in->uwFTbcHz) / 1000; // TBC_S2CT(x)     ((ULONG)(x)*FTBC_HZ)
    out->ulStopCurValCt = ((ULONG)in->uwIPMOverCurStopTs * in->uwFTbcHz) / 1000;
    out->ulPWMOffShrt1SwValCt = ((ULONG)in->uwPwmoffShrt1SwTs * in->uwFTbcHz) / 1000;
    out->ulShrtPWMOffSwValCt = ((ULONG)in->uwShrtPwmoffSwTs * in->uwFTbcHz) / 1000;
    out->ulPWMOffValCt = ((ULONG)in->uwPwmOffTs * in->uwFTbcHz) / 1000;
    out->ulThrPhsShrtNormValCt = ((ULONG)in->uwThrPhsShrtTs * in->uwFTbcHz) / 1000;
    out->ulOvrVltLvl1ValPu = (((ULONG)in->uwOvrVlt1Vt << 14) / in->uwUbVt) / 1000;
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voStopTBC(ALM_IN *in, ALM_STOPTBC_COF *coef)
{
    if (alm_unAction.bit.ThrPhsShrtFrc)
    {
        if (MCU_BRKIN_FLG)
        {
            hw_voPWMOff();     /* PWM off */
            MCU_BRKIN_FLG_CLR; /* Clear TIME0 break flag */
            MCU_POEN_FLG_EN;   /* Enable TIME0 Channel outputs */

            alm_stStopCt.ulThrPhsShrtFrc++;
            if (alm_stStopCt.ulThrPhsShrtFrc > coef->ulThrPhsShrtFrcValCt) // 200ms
            {
                alm_stStopCt.uwRotorStopCnt++;
                if (alm_stStopCt.uwRotorStopCnt >= coef->ulStopCurValCt) // 100ms
                {
                    hw_voPWMOff(); /* PWM off */
                    cmfsm_stFlg.blMotorStopFlg = TRUE;
                    alm_stStopCt.uwRotorStopCnt = coef->ulStopCurValCt;
                }
            }
            alm_stStopCt.ulShrtPWMOffSw = 0;
        }
        else
        {}
    }
    else if (alm_unAction.bit.PWMOff)
    {
        alm_stStopCt.ulPWMOffShrtSw++;
        alm_stStopCt.ulPWMOff++;
        if (alm_stStopCt.ulPWMOffShrtSw < coef->ulPWMOffShrt1SwValCt) // 100ms
        {
            hw_voPWMOff();
            alm_stStopCt.uwRotorStopCnt = 0;
        }
        // else if(alm_stStopCt.ulPWMOffShrtSw < coef->ulPWMOffShrt2SwValCt)
        // {
        //   hw_voThrPhsShrt();
        // }
        else
        {
            alm_stStopCt.ulPWMOffShrtSw = 0;
        }

        if (alm_stStopCt.ulPWMOff > coef->ulPWMOffValCt) // 200ms
        {
            cmfsm_stFlg.blMotorStopFlg = TRUE;
            alm_stStopCt.ulPWMOff = 0;
        }

        alm_stStopCt.ulShrtPWMOffSw = 0;
    }
    else // if (alm_unAction.bit.ThrPhsShrt)
    {
        alm_stStopCt.ulShrtPWMOffSw++;
        alm_stStopCt.ulThrPhsShrt++;

       /* if (alm_stStopCt.ulShrtPWMOffSw < coef->ulThrPhsShrtNormValCt) // 100ms
        {
            hw_voThrPhsShrt(); // Three phase short
        }
        else*/ if (alm_stStopCt.ulShrtPWMOffSw < (coef->ulThrPhsShrtNormValCt + coef->ulShrtPWMOffSwValCt)) // 100ms + 100ms
        {
            hw_voPWMOff();
            if (in->uwVdcPu > coef->ulOvrVltLvl1ValPu) // over vol level1 43V
            {
                alm_stStopCt.ulShrtPWMOffSw = 0;
            }
            alm_stStopCt.uwRotorStopCnt = 0;
        }
        else
        {
            alm_stStopCt.ulShrtPWMOffSw = 0;
        }

        if (alm_stStopCt.ulThrPhsShrt > coef->ulThrPhsShrtFrcValCt) // 200ms
        {
            hw_voPWMOff(); /* PWM off */
            cmfsm_stFlg.blMotorStopFlg = TRUE;
            alm_stStopCt.ulThrPhsShrt = 0;
        }

        alm_stStopCt.ulPWMOffShrtSw = 0;
    }
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voStopTBS(void)
{
    //    if (alm_unAction.bit.SlowDwn)
    //    {
    //        acm_voAlmCtrMdTbs();
    //    }
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voResetCoef(ALM_RESET_COFIN *in, ALM_RESET_COF *out)
{
    if (in->uwUbVt < 1)
    {
        in->uwUbVt = 1;
    }

    out->ulRecAllValCt = ((ULONG)in->uwRecAllTs * in->uwFTbcHz) / 1000; // TBC_S2CT(x)   ((ULONG)(x)*FTBC_HZ)
    out->ulIPMOcRecValCt = ((ULONG)in->uwIpmOcRecTs * in->uwFTbcHz) / 1000;
    out->ulOvrVltRecValPu = ((ULONG)in->uwOvrVltRecVt << 14) / in->uwUbVt;
    out->ulOvrVltRecValCt = ((ULONG)in->uwOvrVltRecTs * in->uwFTbcHz) / 1000;
    out->ulUndrVltRecValPu = ((ULONG)in->uwUndrVltRecVt << 14) / in->uwUbVt;
    out->ulUndrVltRecValCt = ((ULONG)in->uwUndrVltRecTs * in->uwFTbcHz) / 1000;
    out->uwIPMOvrHeatRecValCe = in->uwIpmOvrHeatRecCe;
    out->ulIPMOvrHeatRecValCt = ((ULONG)in->uwIpmOvrHeatRecTs * in->uwFTbcHz);
    out->ulIPMOvrHeatRec1ValCt = ((ULONG)in->uwIpmOvrHeatRec1Ts * in->uwFTbcHz);
    out->uwMotorOvrHeatRecValCe = in->uwMotorOvrHeatRecCe;
    out->ulMotorOvrHeatRecValCt = ((ULONG)in->uwMotorOvrHeatRecTs * in->uwFTbcHz);
    out->ulMotorOvrHeatRec1ValCt = ((ULONG)in->uwMotorOvrHeatRec1Ts * in->uwFTbcHz);
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voReset(ALM_IN *in, ALM_RESET_COF *coef)
{

    /*=======================================================================
    Recover condition
    =======================================================================*/
    /* Recover time of global */
    if (alm_stRecCt.ulGlbl < coef->ulRecAllValCt) // 200ms
    {
        alm_stRecCt.ulGlbl++;
    }

    /* Recover time of IPM OC */
    if (alm_stRecCt.ulIPMOC < coef->ulIPMOcRecValCt) // 100ms
    {
        alm_stRecCt.ulIPMOC++;
    }

    /* Recover time of over voltage */
    if (in->uwVdcPu < coef->ulOvrVltRecValPu) // 450v
    {
        if (alm_stRecCt.ulOvrVlt < coef->ulOvrVltRecValCt) // 100ms
        {
            alm_stRecCt.ulOvrVlt++;
        }
    }


    /* Recover time of under voltage */
    if (in->uwVdcPu > coef->ulUndrVltRecValPu) // 30v
    {
        if (alm_stRecCt.ulUndrVlt < coef->ulUndrVltRecValCt) // 100ms
        {
            alm_stRecCt.ulUndrVlt++;
        }
    }


    /* Recover time of IPM over heat */
    if (in->swIPMTempCe < coef->uwIPMOvrHeatRecValCe) // 75
    {
        if (alm_stRecCt.ulIPMOvrHeat < coef->ulIPMOvrHeatRecValCt) // 60s
        {
            alm_stRecCt.ulIPMOvrHeat++;
        }
        alm_stRecCt.ulIPMOvrHeat1 = 0;
    }
    else
    {
        if (alm_stRecCt.ulIPMOvrHeat1 < coef->ulIPMOvrHeatRec1ValCt) // 120s
        {
            alm_stRecCt.ulIPMOvrHeat1++;
        }
        alm_stRecCt.ulIPMOvrHeat = 0;
    }

    /*=======================================================================
    Alarm code clear
    =======================================================================*/
    if (alm_stRecCt.ulGlbl >= coef->ulRecAllValCt) // 200ms
    {
        /* IPM fault */
        if ((alm_unCode.bit.IPMFlt) && (alm_stRecCt.ulIPMOC >= coef->ulIPMOcRecValCt))
        {
            MCU_BRKIN_FLG_CLR; /* Clear TIME0 break flag */
            MCU_POEN_FLG_EN;   /* Enable TIME0 Channel outputs */
           // DL_GPIO_clearPins(GPIOA, DL_GPIO_PIN_31);
            alm_unCode.bit.IPMFlt = FALSE;
          //  IO_FTESTLED_OFF();//   DL_TimerG_setCaptureCompareValue(PWM_F_INST, 0, GPIO_PWM_F_C1_IDX); //指示 test

        }

        /* Over current */
        if (alm_unCode.bit.OvrCur)
        {
            alm_stDecCt.ulOvrCur = 0;
            alm_unCode.bit.OvrCur = FALSE;
        }

        /* Over voltage */
        if (alm_unCode.bit.OvrVlt)
        {
            if (alm_stRecCt.ulOvrVlt >= coef->ulOvrVltRecValCt) // 4s 20s
            {
                alm_stDecCt.ulOvrVltLvl1 = 0;
                alm_unCode.bit.OvrVlt = FALSE;
            }
        }

        /* Under voltage */
        if (alm_unCode.bit.UndrVlt)
        {
            if (alm_stRecCt.ulUndrVlt >= coef->ulUndrVltRecValCt) // 4s 20s
            {
                alm_stDecCt.ulUndrVltLvl1 = 0;
                alm_unCode.bit.UndrVlt = FALSE;
            }
        }

        /* IPM over heat */
        if (alm_unCode.bit.IPMOvrHeat)
        {
            if (alm_stRecCt.ulIPMOvrHeat >= coef->ulIPMOvrHeatRecValCt)
            {
                alm_stDecCt.ulIPMOvrHeat = 0;
                alm_stDecCt.ulIPMOvrHeat1 = 0;
                alm_unCode.bit.IPMOvrHeat = FALSE;
                alm_pvt_blIPMOTReCheckFlg = FALSE;
            }
            else if (alm_stRecCt.ulIPMOvrHeat1 >= coef->ulIPMOvrHeatRec1ValCt)
            {
                alm_stDecCt.ulIPMOvrHeat = 0;
                alm_stDecCt.ulIPMOvrHeat1 = 0;
                alm_unCode.bit.IPMOvrHeat = FALSE;
                alm_pvt_blIPMOTReCheckFlg = TRUE;
            }
        }
        
        /* Motor over heat */
        if (alm_unCode.bit.MotorOvrHeat)
        {
            if (alm_stRecCt.ulMotorOvrHeat >= coef->ulMotorOvrHeatRecValCt)
            {
                alm_stDecCt.ulMotorOvrHeat = 0;
                alm_stDecCt.ulMotorOvrHeat1 = 0;
                alm_unCode.bit.MotorOvrHeat = FALSE;
                alm_pvt_blMotorOTReCheckFlg = FALSE;
            }
            else if (alm_stRecCt.ulMotorOvrHeat1 >= coef->ulMotorOvrHeatRec1ValCt)
            {
                alm_stDecCt.ulMotorOvrHeat = 0;
                alm_stDecCt.ulMotorOvrHeat1 = 0;
                alm_unCode.bit.MotorOvrHeat = FALSE;
                alm_pvt_blMotorOTReCheckFlg = TRUE;
            }
        }
        
        /* Hall loss */
        if (alm_unCode.bit.HallLoss)
        {
            if(((in->uwSectorNum != 0)&&(in->uwSectorNum != 7))||(cp_stFlg.ThetaGetModelSelect != ANG_SWITCHHALL))
            {
                alm_stDecCt.ulHallLoss = 0;
                alm_unCode.bit.HallLoss = FALSE;
            }
        }

        /* Phase loss */
        if ((alm_unCode.bit.PhsLoss) && (signal_state.Assist == 0 && signal_state.Sensor == 0))
        {
            alm_stDecCt.ulPhsALoss = 0;
            alm_stDecCt.ulPhsBLoss = 0;
            alm_stDecCt.ulPhsCLoss = 0;
            alm_unCode.bit.PhsLoss = FALSE;
        }

        /* Rotor lock */
        if ((alm_unCode.bit.RotorLock) && (signal_state.Assist == 0 && signal_state.Sensor == 0))
        {
            alm_stDecCt.slRotorLock = 0;
            alm_unCode.bit.RotorLock = FALSE;

        }
        
        /* Over Speed */
        if(alm_unCode.bit.OvrSpd)
        {
            alm_stDecCt.ulOvrSpd = 0;
            alm_unCode.bit.OvrSpd = FALSE;
        }

        /* Communication over time */
        if (alm_unCode.bit.CommOvrTm)
        {
            alm_unCode.bit.CommOvrTm = FALSE;
        }

        if (alm_unCode.bit.ADCOffsetFlt)
        {
            /* ADC init */
            adc_stDownOut.ulIdcRegSum = 0;
            adc_stDownOut.ulUaRegSum = 0;
            adc_stDownOut.ulUbRegSum = 0;
            adc_stDownOut.ulUcRegSum = 0;

            adc_stDownOut.uwADCCalibCt = 0;
            adc_stDownOut.blADCCalibFlg = FALSE;
            adc_stUpOut.uwADCCalibCt = 0;
            adc_stUpOut.blADCCalibFlg = FALSE;
            sysfsm_stFlg.blADCInitOvrFlg = FALSE;
            alm_unCode.bit.ADCOffsetFlt = FALSE;
        }
    }
    /*=======================================================================
    Alarm flag clear
    =======================================================================*/
    if (!alm_unCode.all)
    {

        /* Clear alarm action */
        alm_unAction.all = 0;

        /* Clear stop count */
        alm_stStopCt.ulThrPhsShrtFrc = 0;
        alm_stStopCt.ulPWMOff = 0;
        alm_stStopCt.ulThrPhsShrt = 0;
        alm_stStopCt.uwRotorStopCnt = 0;
        alm_stStopCt.ulPWMOffShrtSw = 0;
        alm_stStopCt.ulShrtPWMOffSw = 0;

        /* Clear recover count */
        alm_stRecCt.ulGlbl = 0;
        alm_stRecCt.ulOvrVlt = 0;
        alm_stRecCt.ulOvrVlt1 = 0;
        alm_stRecCt.ulUndrVlt = 0;
        alm_stRecCt.ulUndrVlt1 = 0;
        alm_stRecCt.ulIPMOvrHeat = 0;
        alm_stRecCt.ulIPMOvrHeat1 = 0;
        alm_stRecCt.ulIPMOC = 0;

        if(alm_unBikeCode.all == 0)
        {
            /* Clear alarm flag */
            alm_blAlmOccrFlg = FALSE;
            alm_blWarnOccrFlg = FALSE;
            alm_pvt_ulWarn2ErrorCount = 0;
            alm_blAlmSingleRecordDoneFlg = FALSE;
        }
    }
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voHandleRst(void)
{
    alm_enFSMStatus = Alm_Stop;
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voDetec200MSCoef(ALM_DETEC200MS_COFIN *in, ALM_DETEC200MS_COF *out)
{
    if (in->uwFbHz < 1)
    {
        in->uwFbHz = 1;
    }
    out->swMotorSpdMinPu = (SWORD)(((SLONG)in->swMotorSpdMinRpm << 15) /  (SWORD)60 *  (SWORD)in->uwPairs / (SWORD)in->uwFbHz);
    out->uwTorqMinPu = (UWORD)(((ULONG)in->uwTorqMinNm << 14) / TORQUEBASE);
    out->uwBikeSpdFltCt = in->uwBikeSpdFltTs * in->uwFT200MSHz;
    out->uwCadenceFltCt = in->uwCadenceFltTs * in->uwFT200MSHz;
    out->uwTorqFltCt = in->uwTorqFltTs * in->uwFT200MSHz;
    out->uwThrottleFltCt = in->uwThrottleFltTs * in->uwFT200MSHz;
    out->uwPCBNTCFltCt = in->uwPCBNTCFltTs * in->uwFT200MSHz;
    out->uwMotorNTCFltCt = in->uwMotorNTCFltTs * in->uwFT200MSHz;
    
    out->uwTorqMaxReg = (UWORD)((ULONG)in->uwTorqMaxVol * 4096 / 33);
    out->uwTorqMinReg = (UWORD)((ULONG)in->uwTorqMinVol * 4096 / 33);
    out->uwThrottleMaxReg = (UWORD)((ULONG)in->uwThrottleMaxVol * 4096 / 33);
    out->uwThrottleMinReg = (UWORD)((ULONG)in->uwThrottleMinVol * 4096 / 33);
    out->uwNTCMaxReg = (UWORD)((ULONG)in->uwNTCMaxVol * 4096 / 33);
    out->uwNTCMinReg = (UWORD)((ULONG)in->uwNTCMinVol * 4096 / 33);
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voDetec200MS(const ALM_BIKE_IN *in, const ALM_DETEC200MS_COF *coef) 
{ 
    /* Bike speed sensor fault */
    if(in->uwCadenceFreqPu > 150 || in->swMotorSpdAbsPu > coef->swMotorSpdMinPu) // 0.2Hz 150
    {
        if(in->uwBikeSpdPu < 75) // 0.1hz 75
        {
            alm_stDecCt.uwBikeSpdFlt ++;
            if(alm_stDecCt.uwBikeSpdFlt >= coef->uwBikeSpdFltCt)
            {
                alm_stDecCt.uwBikeSpdFlt = coef->uwBikeSpdFltCt;
                alm_unBikeCode.bit.BikeSpdSen = 1;
//                alm_unAction.bit.PWMOff = 1;
            }    
        }
        else if(in->blBikeSpdOvrFlg)
        {        
            alm_unBikeCode.bit.BikeSpdSen = 1;
//            alm_unAction.bit.PWMOff = 1;
        }
        else
        {
            alm_stDecCt.uwBikeSpdFlt = 0;
        }
    }
    else
    {
        alm_stDecCt.uwBikeSpdFlt = 0;
    }

  if(power_stPowStateOut.blPowerStartupFlg == TRUE)
  {
    if(cp_stFlg.RunModelSelect == CadAssist)  /* 纯踏频助力判断逻辑 */
    {
        /* Bike cadence sensor fault */
        if(in->blCadenceFreqOvrFlg)
        {
            alm_unBikeCode.bit.CadenceSen = 1;
//            alm_unAction.bit.PWMOff = 1;
        }
    }
    else if((cp_stFlg.RunModelSelect == TorqAssist) &&(power_stPowStateOut.blPowerStartupFlg == TRUE))/* 力矩中轴助力判断逻辑 */
    {
        /* Bike cadence sensor fault */
        if(in->uwBikeSpdPu > 475 && in->uwTroqPu > coef->uwTorqMinPu) //475-5km/h
        {
            if(in->uwCadenceFreqPu == 0)
            {
                alm_stDecCt.uwCadenceFlt ++;
                if(alm_stDecCt.uwCadenceFlt >= coef->uwCadenceFltCt)
                {
                    alm_stDecCt.uwCadenceFlt = coef->uwCadenceFltCt;
                    alm_unBikeCode.bit.CadenceSen = 1;
//                    alm_unAction.bit.PWMOff = 1;
                }
            }
            else if(in->blCadenceFreqOvrFlg)
            {
                alm_unBikeCode.bit.CadenceSen = 1;
//                alm_unAction.bit.PWMOff = 1;
            }
            else
            {
                alm_stDecCt.uwCadenceFlt = 0;
            }
        }
        else
        {
            alm_stDecCt.uwCadenceFlt = 0;
        }
        
        /* Bike torque sensor fault */
        if((in->uwTroqReg < coef->uwTorqMinReg) || (in->uwTroqReg >= coef->uwTorqMaxReg)) //Fault: U_Torq < 0.1V or  >=3V
        {
            alm_stDecCt.uwTorqFlt ++;
            if(alm_stDecCt.uwTorqFlt >= coef->uwTorqFltCt)
            {
                alm_stDecCt.uwTorqFlt = coef->uwTorqFltCt;
                alm_unBikeCode.bit.TorqSen = 1;
//                alm_unAction.bit.PWMOff = 1;
            }
        }
        else
        {
            alm_stDecCt.uwTorqFlt = 0;
        }
    }
  }
    
    /* Bike throttle fault */
#if 0
    if(in->blThrottleExistFlg)
    {
        if((in->uwThrottleReg < coef->uwThrottleMinReg) || (in->uwThrottleReg >= coef->uwThrottleMaxReg))  //  Fault: U_Throttle < 0.1V or >=3V
        {
            alm_stDecCt.uwThrottleFlt ++;
            if(alm_stDecCt.uwThrottleFlt >= coef->uwThrottleFltCt)
            {
                alm_stDecCt.uwThrottleFlt = coef->uwThrottleFltCt;
                alm_unBikeCode.bit.Throttle = 1;
//                alm_unAction.bit.PWMOff = 1;
            }
        } 
        else
        {
            alm_stDecCt.uwThrottleFlt = 0;
        }
    }
#endif
    /* PCB NTC fault */
//    if((in->uwPCBNTCReg < coef->uwNTCMinReg) || (in->uwPCBNTCReg > coef->uwNTCMaxReg))   //  Fault: NTC>100k or <0.032k
//    {
//        alm_stDecCt.uwPCBNTCFlt ++;
//        if(alm_stDecCt.uwPCBNTCFlt >= coef->uwPCBNTCFltCt)
//        {
//            alm_stDecCt.uwPCBNTCFlt = coef->uwPCBNTCFltCt;
//            alm_unBikeCode.bit.PCBNTC = 1;
//            alm_unAction.bit.PWMOff = 1;
//        }
//    }
//    else
//    {
//        alm_stDecCt.uwPCBNTCFlt = 0;
//    }
  
    /* Motor NTC fault */
    if(in->blMotorNTCExistFlg)
    {
        if((in->uwMotorNTCReg < coef->uwNTCMinReg) || (in->uwMotorNTCReg > coef->uwNTCMaxReg))  // Fault: NTC>100k or <0.032k
        {
            alm_stDecCt.uwMotorNTCFlt ++;
            if(alm_stDecCt.uwMotorNTCFlt >= coef->uwMotorNTCFltCt)
            {
                alm_stDecCt.uwMotorNTCFlt = coef->uwMotorNTCFltCt;
                alm_unBikeCode.bit.MotorNTC = 1;
//                alm_unAction.bit.PWMOff = 1;
            }
        }
        else
        {
            alm_stDecCt.uwMotorNTCFlt = 0;
        }
    }

    /*1）上电后检测到刹车有效则判定刹车故障，持续检测到刹车无效则退出刹车故障，此后不再检测；2）上电检测到刹车无效，则此后不再检测刹车故障*/
    if(alm_stDecCt.uwBrakeFlt < 1)
    {
        if(BikeBrake_blGetstate() == TRUE)
        {
            alm_unBikeCode.bit.Brake = 1;
        }
        else
        {
            alm_unBikeCode.bit.Brake = 0;
            alm_stDecCt.uwBrakeFlt = 1;
        }
    }
}

/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voHandle1MS(const ALM_BIKE_IN *in)
{
   if(alm_unBikeCode.all != 0)
   {
      /* Alarm handle FSM */
      switch (alm_enBikeFSMStatus)
      {
      case Alm_Stop:
          if (alm_unAction.bit.PWMOff != 0)
          {
            alm_stStopCt.ulBikePWMOff++;
            hw_voPWMOff();
//            sysctrl_voPwmOff();
            if (alm_stStopCt.ulBikePWMOff > 200) // 200ms, SysFault_hook, Event 1ms
            {
                cmfsm_stFlg.blMotorStopFlg = TRUE;
                alm_stStopCt.ulBikePWMOff = 0;
            }
          }
          
          if (cmfsm_stFlg.blMotorStopFlg)
          {
              sysfsm_stFlg.blFSMRstOvrFlg = FALSE;       // Enable control mode FSM reset 
              sysfsm_stFlg.blCtrlMdVarClcOvrFlg = FALSE; // Enable control mode variable clear 
              alm_enBikeFSMStatus = Alm_VarClc;
          }
          break;
      case Alm_VarClc:
          if (sysfsm_stFlg.blFSMRstOvrFlg && sysfsm_stFlg.blCtrlMdVarClcOvrFlg)
          {
              alm_enBikeFSMStatus = Alm_Reset;
          }
          break;
      case Alm_Reset:
          alm_voReset1MS(in, &alm_stReset1MSCoef, &alm_stDetect200MSCoef);
          break;
      default:
          break;
      }
   
   }
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voReset1MSCoef(const ALM_RESET1MS_COFIN *in, ALM_RESET1MS_COF *out)
{
    out->ulRecAllValCt = (ULONG)in->uwBikeGlblTm * in->uwFT1MSHz / 1000;
    out->ulRecBikeSpdCt = (ULONG)in->uwBikeSpdFltTm * in->uwFT1MSHz / 1000;
    out->ulRecCadenceCt = (ULONG)in->uwCadenceFltTm * in->uwFT1MSHz / 1000;
    out->ulRecTorqCt = (ULONG)in->uwTorqFltTm * in->uwFT1MSHz / 1000;
    out->ulRecThrottleCt = (ULONG)in->uwThrottleFltTm * in->uwFT1MSHz / 1000;
    out->ulRecPCBNTCCt = (ULONG)in->uwPCBNTCFltTm * in->uwFT1MSHz / 1000;
    out->ulRecMotorNTCCt = (ULONG)in->uwMotorNTCFltTm * in->uwFT1MSHz / 1000;
}
/***************************************************************
Function:
Description:
Call by:
Input Variables:
Output/Return Variables:
Subroutine Call:
Reference:
****************************************************************/
void alm_voReset1MS(const ALM_BIKE_IN *in, const ALM_RESET1MS_COF *coef, const ALM_DETEC200MS_COF *detctcoef) /* parasoft-suppress METRICS-28 "本项目圈复杂度无法更改，后续避免" */
{
    /*=======================================================================
    Recover condition
    =======================================================================*/
    /* Recover time of global */
    if (alm_stRecCt.ulBikeGlbl < coef->ulRecAllValCt) // 1s
    {
        alm_stRecCt.ulBikeGlbl++;
    }

    /* Recover time of bike speed sensor fault */
    if((!in->blBikeSpdOvrFlg) && (in->uwBikeSpdPu > 0))
    {
       if(alm_stRecCt.ulBikeSpdFlt < coef->ulRecBikeSpdCt) 
       {
          alm_stRecCt.ulBikeSpdFlt++;
       }  
    }
    
    /* Recover time of bike candence sensor fault */
    if((!in->blCadenceFreqOvrFlg) && (in->uwCadenceFreqPu > 0))
    {
        if (alm_stRecCt.ulCadenceFlt < coef->ulRecCadenceCt) 
        {
            alm_stRecCt.ulCadenceFlt++;
        }
    }
    
    /* Recover time of bike torque sensor fault */
    if((in->uwTroqReg > detctcoef->uwTorqMinReg) && (in->uwTroqReg < detctcoef->uwTorqMaxReg))
    {
        if (alm_stRecCt.ulTorqFlt < coef->ulRecTorqCt) 
        {
            alm_stRecCt.ulTorqFlt++;
        }
    }
    else
    {
        alm_stRecCt.ulTorqFlt = 0;
    }
    
    /* Recover time of bike throttle fault */
    if((in->uwThrottleReg > detctcoef->uwThrottleMinReg) && (in->uwThrottleReg < detctcoef->uwThrottleMaxReg))
    {
        if (alm_stRecCt.ulThrottleFlt < coef->ulRecThrottleCt) 
        {
            alm_stRecCt.ulThrottleFlt++;
        }
    }
    else
    {
        alm_stRecCt.ulThrottleFlt = 0;
    }
    
    /* Recover time of PCB NTC fault */
    if((in->uwPCBNTCReg > detctcoef->uwNTCMinReg) && (in->uwThrottleReg < detctcoef->uwNTCMaxReg))
    {
        if (alm_stRecCt.ulPCBNTCFlt < coef->ulRecPCBNTCCt) 
        {
            alm_stRecCt.ulPCBNTCFlt++;
        }
    }
    else
    {
        alm_stRecCt.ulPCBNTCFlt = 0;
    }
    
    /* Recover time of motor NTC fault */
    if((in->uwPCBNTCReg > detctcoef->uwNTCMinReg) && (in->uwThrottleReg < detctcoef->uwNTCMaxReg))
    {
        if (alm_stRecCt.ulMotorNTCFlt < coef->ulRecMotorNTCCt) 
        {
            alm_stRecCt.ulMotorNTCFlt++;
        }    
    }
    else
    {
         alm_stRecCt.ulMotorNTCFlt = 0;
    }
    
    /*=======================================================================
    Alarm code clear
    =======================================================================*/
    if (alm_stRecCt.ulBikeGlbl >= coef->ulRecAllValCt) 
    {
        /* Bike speed sensor fault */
        if((alm_unBikeCode.bit.BikeSpdSen != 0) && (alm_stRecCt.ulBikeSpdFlt >= coef->ulRecBikeSpdCt))
        {
             alm_stDecCt.uwBikeSpdFlt = 0;
             alm_unBikeCode.bit.BikeSpdSen = 0;
        }           
            
        /* Bike cadence sensor fault */
        if((alm_unBikeCode.bit.CadenceSen != 0) && (alm_stRecCt.ulCadenceFlt >= coef->ulRecCadenceCt))
        {
             alm_stDecCt.uwCadenceFlt = 0;
             alm_unBikeCode.bit.CadenceSen = 0;
        }
    
        /* Bike torque sensor fault */
        if(((alm_unBikeCode.bit.TorqSen != 0) && (alm_stRecCt.ulTorqFlt >= coef->ulRecTorqCt))
            ||(cp_stFlg.RunModelSelect == ClZLOOP))
        {
             alm_stDecCt.uwTorqFlt = 0;
             alm_unBikeCode.bit.TorqSen = 0;
        }
    
        /* Bike throttle fault */
        if((alm_unBikeCode.bit.Throttle != 0) && (alm_stRecCt.ulThrottleFlt >= coef->ulRecThrottleCt))
        {
            alm_stDecCt.uwThrottleFlt = 0;
            alm_unBikeCode.bit.Throttle = 0;
        }
        
        /* PCB NTC fault */
        if((alm_unBikeCode.bit.PCBNTC != 0) && (alm_stRecCt.ulPCBNTCFlt >= coef->ulRecPCBNTCCt))
        {
            alm_stDecCt.uwPCBNTCFlt = 0;
            alm_unBikeCode.bit.PCBNTC = 0;
        }
               
        /* Motor NTC fault */
        if((alm_unBikeCode.bit.MotorNTC != 0) && (alm_stRecCt.ulMotorNTCFlt >= coef->ulRecMotorNTCCt))
        {
            alm_stDecCt.uwMotorNTCFlt = 0;
            alm_unBikeCode.bit.MotorNTC = 0;
        }
        
    }
    
    /*=======================================================================
    Alarm flag clear
    =======================================================================*/
    if(alm_unBikeCode.all == 0)
    {
        /* Clear stop count */
        alm_stStopCt.ulBikePWMOff = 0;
        
        /* Clear recover count */
        alm_stRecCt.ulBikeGlbl = 0;
        alm_stRecCt.ulBikeSpdFlt = 0;
        alm_stRecCt.ulCadenceFlt = 0;
        alm_stRecCt.ulTorqFlt = 0;
        alm_stRecCt.ulThrottleFlt = 0;
        alm_stRecCt.ulPCBNTCFlt = 0;
        alm_stRecCt.ulMotorNTCFlt = 0;
    }
}

/*************************************************************************
Local Functions (N/A)
*************************************************************************/

/************************************************************************
Copyright (c) 2018 Welling Motor Technology(Shanghai) Co. Ltd.
All rights reserved.
*************************************************************************/
#ifdef _ALARM_C_
#undef _ALARM_C_
#endif
/*************************************************************************
End of this File (EOF):
!!!!!!Do not put anything after this part!!!!!!!!!!!
*************************************************************************/