motor_ctl-4/User project/3.BasicFunction/Source/Temp.c

/**
 * @file Power.c
 * @author Wang, Zhiyu(wangzy49@midea.com)
 * @brief Power of ebike
 * @version 0.1
 * @date 2021-09-29
 *
 * @copyright Copyright (c) 2021
 *
 */

/************************************************************************
 Beginning of File, do not put anything above here except notes
 Compiler Directives:
*************************************************************************/
#include "typedefine.h"
#include "Temp.h"

/******************************
 *
 *  Parameter
 *
 ******************************/
SWORD tmp_CurCalibCoef[CURCALIBNUM] = {
    1024, // 0-20
    1024, // 20-30
    1024, // 30-40
    1024, // 40-50
    1000, // 50-60
    980,  // 60-70
    960,  // 70-80
    940,  // 80-90
};

static SWORD PCB_swRTempTab[PCB_TEMP_NUM] = {
0, // 0.01kOnm IPM voltage at 0 C      initial
0, // 0.01kOnm IPM voltage at 10 C
0, // 0.01kOnm IPM voltage at 20 C
0, // 0.01kOnm IPM voltage at 30 C
0,   // 0.01kOnm IPM voltage at 40 C
0,  //0.01kOnm IPM voltage at 50 C
0,  // 0.01kOnm IPM voltage at 60 C
0, // 0.01kOnm IPM voltage at 70 C
0,   // 0.01kOnm IPM voltage at 80 C
0,  // 0.01kOnm IPM voltage at 90 C
0,   // 0.01kOnm IPM voltage at 100 C
0, // 0.01kOnm IPM voltage at 110 C
0// 40 // 0.01kOnm IPM voltage at 120 C
};
static SWORD PCB_swRTempTab_CITY[PCB_TEMP_NUM] = {
 3000,  // 0.01kOnm IPM voltage at 0 C        CITY
 1900,  // 0.01kOnm IPM voltage at 10 C
 1200,  // 0.01kOnm IPM voltage at 20 C
 718,   // 0.01kOnm IPM voltage at 30 C
 436,   // 0.01kOnm IPM voltage at 40 C
 302,   // 0.01kOnm IPM voltage at 50 C
 211,   // 0.01kOnm IPM voltage at 60 C
 149,   // 0.01kOnm IPM voltage at 70 C
 107,    // 0.01kOnm IPM voltage at 80 C
 79,    // 0.01kOnm IPM voltage at 90 C
 59,    // 0.01kOnm IPM voltage at 100 C
 43,    // 0.01kOnm IPM voltage at 110 C
 33     // 0.01kOnm IPM voltage at 120 C
};
static SWORD PCB_swRTempTab_MTB[PCB_TEMP_NUM] = {
 3000, // 0.01kOnm IPM voltage at 0 C       MTB
 1800, // 0.01kOnm IPM voltage at 10 C
 1100, // 0.01kOnm IPM voltage at 20 C
 661, // 0.01kOnm IPM voltage at 30 C
 386,   // 0.01kOnm IPM voltage at 40 C
 280,  //0.01kOnm IPM voltage at 50 C
 190,  // 0.01kOnm IPM voltage at 60 C
 136, // 0.01kOnm IPM voltage at 70 C
 95,   // 0.01kOnm IPM voltage at 80 C
 68,  // 0.01kOnm IPM voltage at 90 C
 51,   // 0.01kOnm IPM voltage at 100 C
 37, // 0.01kOnm IPM voltage at 110 C
 27  //  0.01kOnm IPM voltage at 120 C
};

static SWORD PCB_swRTempCofTab[PCB_TEMP_NUM-1] = {
  0,0,0,0,0,0,0,0,0,0,0,0
};

static volatile SWORD TorqTempReg[TORQ_TEMP_NUM]= {
3301,    //-11 C
2690,    //8 C
1802,    //28 C
1368,    //40 C
899,     //55 C
580,     //69 C
376      //85 C
};
static volatile SWORD TorqTemp[TORQ_TEMP_NUM]= {
-1083,    //unit: 0.01C
843,    
2830,    
3997,    
5460,     
6930,     
8453      
};
static volatile SWORD TorqTempCof[TORQ_TEMP_NUM-1]= {
  0,0,0,0,0,0
};
/***************************************************************
 Function: TempInit;
 Description: cadence frequency get initialization
 Call by: functions in main loop;
 Input Variables: N/A
 Output/Return Variables: N/A
 Subroutine Call: N/A;
 Reference: N/A
****************************************************************/
void TempInit(void)
{
    UWORD i = 0;

#if((MOTOR_ID_SEL == MOTOR_WELLING_MTB_36V) || (MOTOR_ID_SEL == MOTOR_WELLING_MTB_48V))
	for(i = 0 ; i < PCB_TEMP_NUM ;i ++)
	{
	PCB_swRTempTab[i] =   PCB_swRTempTab_MTB[i] ;
	}
#elif((MOTOR_ID_SEL == MOTOR_WELLING_CITY_36V) || (MOTOR_ID_SEL == MOTOR_WELLING_CITY_48V))
	for(i = 0 ; i < PCB_TEMP_NUM ;i ++)
	{
	PCB_swRTempTab[i] =   PCB_swRTempTab_CITY[i] ;
	}
#endif
    
    for (i = 0; i < (PCB_TEMP_NUM - 1); i++)
    {
        PCB_swRTempCofTab[i] =  (SWORD)(((SLONG)10 << 10) / (PCB_swRTempTab[i] - PCB_swRTempTab[i+ 1])); //Q10
    }  
    
           
//    for (i = 0; i < (TORQ_TEMP_NUM - 1); i++)
//    {
//        TorqTempCof[i] = (((SLONG)TorqTemp[i+1] - (SLONG)TorqTemp[i]) << 10) / (TorqTempReg[i] - TorqTempReg[i+1]) ; //Q10
//    }

}

/***************************************************************
 Function: PcbTempCal;
 Description: Calculation of Pcb Temp using PcbR
 Call by: functions in main loop;
 Input Variables: N/A
 Output/Return Variables: N/A
 Subroutine Call: N/A;
 Reference: N/A
****************************************************************/
SWORD tmp_PcbTemp = 0;
//void PcbTempCal(SWORD PcbR)
//{
//    if (PcbR >= PCB_swRTempTab[temp_0])
//    {
//        tmp_PcbTemp = 0;
//    }
//    else if (PcbR < PCB_swRTempTab[temp_0] && PcbR >= PCB_swRTempTab[temp_20])
//    {
//        tmp_PcbTemp = 0 + (((PcbR - PCB_swRTempTab[temp_0]) * PCB_swRTempCofTab[temp_coef_0_20]) >> 10);
//    }
//    else if (PcbR < PCB_swRTempTab[temp_20] && PcbR >= PCB_swRTempTab[temp_40])
//    {
//        tmp_PcbTemp = 20 + (((PcbR - PCB_swRTempTab[temp_20]) * PCB_swRTempCofTab[temp_coef_20_40]) >> 10);
//    }
//    else if (PcbR < PCB_swRTempTab[temp_40] && PcbR >= PCB_swRTempTab[temp_60])
//    {
//        tmp_PcbTemp = 40 + (((PcbR - PCB_swRTempTab[temp_40]) * PCB_swRTempCofTab[temp_coef_40_60]) >> 10);
//    }
//    else if (PcbR < PCB_swRTempTab[temp_60] && PcbR >= PCB_swRTempTab[temp_80])
//    {
//        tmp_PcbTemp = 60 + (((PcbR - PCB_swRTempTab[temp_60]) * PCB_swRTempCofTab[temp_coef_60_80]) >> 10);
//    }
//    else if (PcbR < PCB_swRTempTab[temp_80] && PcbR >= PCB_swRTempTab[temp_100])
//    {
//        tmp_PcbTemp = 80 + (((PcbR - PCB_swRTempTab[temp_80]) * PCB_swRTempCofTab[temp_coef_80_100]) >> 10);
//    }
//    else if (PcbR < PCB_swRTempTab[temp_100])
//    {
//        tmp_PcbTemp = 100 +(((PcbR - PCB_swRTempTab[temp_100]) * PCB_swRTempCofTab[temp_coef_100_120]) >> 10);
//    }
//    else
//    {}
//}
static SWORD coeftest = 0 ;
void PcbTempCal(SWORD PcbR)
{
    if (PcbR >= PCB_swRTempTab[temp_0])
    {
        tmp_PcbTemp = 0;
        coeftest = 2 ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_10])
    {
        tmp_PcbTemp = 10 - (((PcbR - PCB_swRTempTab[temp_10]) * PCB_swRTempCofTab[temp_coef_0_10]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_0_10] ;
          
    }
    else if (PcbR >= PCB_swRTempTab[temp_20])
    {
        tmp_PcbTemp = 20 - (((PcbR - PCB_swRTempTab[temp_20]) * PCB_swRTempCofTab[temp_coef_10_20]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_10_20] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_30])
    {
        tmp_PcbTemp = 30 - (((PcbR - PCB_swRTempTab[temp_30]) * PCB_swRTempCofTab[temp_coef_20_30]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_20_30] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_40])
    {
        tmp_PcbTemp = 40 - (((PcbR - PCB_swRTempTab[temp_40]) * PCB_swRTempCofTab[temp_coef_30_40]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_30_40] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_50])
    {
        tmp_PcbTemp = 50 - (((PcbR - PCB_swRTempTab[temp_50]) * PCB_swRTempCofTab[temp_coef_40_50]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_40_50] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_60])
    {
        tmp_PcbTemp = 60 - (((PcbR - PCB_swRTempTab[temp_60]) * PCB_swRTempCofTab[temp_coef_50_60]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_50_60] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_70])
    {
        tmp_PcbTemp = 70 - (((PcbR - PCB_swRTempTab[temp_70]) * PCB_swRTempCofTab[temp_coef_60_70]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_60_70] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_80])
    {
        tmp_PcbTemp = 80 - (((PcbR - PCB_swRTempTab[temp_80]) * PCB_swRTempCofTab[temp_coef_70_80]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_70_80] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_90])
    {
        tmp_PcbTemp = 90 - (((PcbR - PCB_swRTempTab[temp_90]) * PCB_swRTempCofTab[temp_coef_80_90]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_80_90] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_100])
    {
        tmp_PcbTemp = 100 - (((PcbR - PCB_swRTempTab[temp_100]) * PCB_swRTempCofTab[temp_coef_90_100]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_90_100] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_110])
    {
        tmp_PcbTemp = 110 - (((PcbR - PCB_swRTempTab[temp_110]) * PCB_swRTempCofTab[temp_coef_100_110]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_100_110] ;
    }
    else if (PcbR >= PCB_swRTempTab[temp_120])
    {
        tmp_PcbTemp = 120 - (((PcbR - PCB_swRTempTab[temp_120]) * PCB_swRTempCofTab[temp_coef_110_120]) >> 10);
        coeftest = PCB_swRTempCofTab[temp_coef_110_120] ;
    }
    else
    {
        tmp_PcbTemp = 130 ;
        coeftest = 1;
    }
}
/***************************************************************
 Function: 
 Description:
 Call by: 
 Input Variables: N/A
 Output/Return Variables: N/A
 Subroutine Call: N/A
 Reference: N/A
****************************************************************/    
//SWORD temp_swTorqTempCal(UWORD Reg)  
//{
//    SWORD Temp = 0,i = 0;
//    
//    if(Reg >= TorqTempReg[0])
//    {
//       Temp = TorqTemp[0];
//    }
//    else if(Reg < TorqTempReg[TORQ_TEMP_NUM - 1])
//    {
//       Temp = TorqTemp[TORQ_TEMP_NUM - 1];
//    }
//    else
//    {
//        for (i = 0; i < (TORQ_TEMP_NUM - 1); i++)
//        {
//            if(Reg >= TorqTempReg[i+1] && Reg < TorqTempReg[i])
//            {
//               Temp = TorqTemp[i] + ((SLONG)TorqTempCof[i] * (TorqTempReg[i] - Reg) >> 10);  //Q10
//               break;
//            }        
//        }    
//    }
//    
//    return  Temp;
//}
    
/*************************************************************************
 End of this File (EOF)!
 Do not put anything after this part!
*************************************************************************/