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Fork of IntegrationCAN-novo by
CAN_library.cpp
- Committer:
- formulas
- Date:
- 2018-06-17
- Revision:
- 4:c648a8c57106
- Parent:
- 3:c9a444d3fe1b
- Child:
- 5:53d7dbb8503c
File content as of revision 4:c648a8c57106:
#include "CAN_library.h" extern CAN can; extern Serial pc; extern CANMessage msgDTA1, msgDTA2, msgDTA3, msgDTA4, msgDTA5, msgDTA6, msgLVDTFront, msgLVDTRear, msgBrakes, msgKm; extern uint16_t rx_flag; extern uint8_t lvdtref; extern Serial tRF; extern uint16_t Rpm0, Speed0, Gear0, Water_Temp0, Oil_Temp0, TPS0, Brakes0, Oil_P0, MAP0, Air_Temp0, Lambda0, Volts0, Crank0; extern uint16_t Rpm, Speed, Gear, Water_Temp, Oil_Temp, TPS, Brakes, Oil_P, MAP, Air_Temp, Lambda, Volts, Crank; extern int FL_LVDT0, FR_LVDT0, RL_LVDT0, RR_LVDT0, FL_LVDT, FR_LVDT, RL_LVDT, RR_LVDT; extern int FL_LVDT_Ref,FR_LVDT_Ref,RL_LVDT_Ref,RR_LVDT_Ref; int LVDT_Max=150; void CANMsgReceive(){ // CAN RX Interrupt Function CANMessage tmpMsg; if (can.read(tmpMsg)) { //Detect message //pc.printf("%x\n",tmpMsg.id); switch(tmpMsg.id){ //Find which DTA message is received case(0x2000): rx_flag|=(1<<0); msgDTA1=tmpMsg; break; case(0x2001): rx_flag|=(1<<1); msgDTA2=tmpMsg; //pc.printf("rx_flag=%x\n",rx_flag); break; case(0x2002): rx_flag|=(1<<2); msgDTA3=tmpMsg; break; case(0x2003): rx_flag|=(1<<3); msgDTA4=tmpMsg; break; case(0x2004): rx_flag|=(1<<4); msgDTA5=tmpMsg; break; case(0x2005): rx_flag|=(1<<5); msgDTA6=tmpMsg; break; case(0x2006): rx_flag|=(1<<6); msgLVDTFront=tmpMsg; break; case(0x2007): rx_flag|=(1<<7); msgLVDTRear=tmpMsg; break; case(0x2008): rx_flag|=(1<<8); msgBrakes=tmpMsg; break; case(0x2009): rx_flag|=(1<<9); msgKm=tmpMsg; break; }; //pc.printf("rx_flag=%d\n",rx_flag); }; }; void UpdateInfo(){ // Update info for DTA values pc.printf("Im in UpdateInfo\n"); int noID=9; uint16_t *newData; for (int i=0;i<noID;i++){ //For loop goes trough Message IDs uint16_t flagBit; flagBit = rx_flag & (1<<i); //Set flag bit for adequate message. If there is a message waiting to be stored, flagBit will be different than 0. if (flagBit) { // =/=0, there is a message, =0, there is no message switch(i){ case(0): newData=AllocData(msgDTA1); //Allocate message to a receiver UpdateInfoDTA1(newData); //Update variables rx_flag = rx_flag ^ (1<<0); //Set flag of adequate bit to 0 break; case(1): newData=AllocData(msgDTA2); UpdateInfoDTA2(newData); rx_flag = rx_flag ^ (1<<1); break; case(2): newData=AllocData(msgDTA3); UpdateInfoDTA3(newData); rx_flag = rx_flag ^ (1<<2); break; case(3): newData=AllocData(msgDTA4); UpdateInfoDTA4(newData); rx_flag = rx_flag ^ (1<<3); break; case(4): newData=AllocData(msgDTA5); UpdateInfoDTA5(newData); rx_flag = rx_flag ^ (1<<4); break; case(5): newData=AllocData(msgDTA6); UpdateInfoDTA6(newData); rx_flag = rx_flag ^ (1<<5); break; case(6): newData=AllocData(msgLVDTFront); UpdateInfoLVDTFront(newData); rx_flag = rx_flag ^ (1<<6); break; case(7): newData=AllocData(msgLVDTRear); UpdateInfoLVDTRear(newData); rx_flag = rx_flag ^ (1<<7); break; case(8): newData=AllocData(msgBrakes); UpdateInfoBrakes(newData); rx_flag = rx_flag ^ (1<<8); break; //TODO: Resiti primanje KM // for each new id add new case statement }; }; }; }; uint16_t * AllocData(CANMessage msg){ //Unpack CAN message uint16_t newData[4]; newData[0]=(msg.data[1]<<8) | msg.data[0]; newData[1]=(msg.data[3]<<8) | msg.data[2]; newData[2]=(msg.data[5]<<8) | msg.data[4]; newData[3]=(msg.data[7]<<8) | msg.data[6]; return newData; }; void UpdateInfoDTA1(uint16_t newData[4]){ //Update values for DTA1 message Rpm0=Rpm; Rpm=newData[0]; TPS0=TPS; TPS=newData[1]; Water_Temp0=Water_Temp; Water_Temp=newData[2]; Air_Temp0=Air_Temp; Air_Temp=newData[3]; pc.printf("id=2000, Rpm= %d, TPS= %d, Water_temp= %d, Air_Temp= %d\n",Rpm,TPS,Water_Temp,Air_Temp); }; void UpdateInfoDTA2(uint16_t newData[4]){ //Update values for DTA2 message MAP0=MAP; MAP=newData[0]; Lambda0=Lambda; Lambda=newData[1]; Speed0=Speed; Speed=newData[2]; Oil_P0=Oil_P; Oil_P=newData[3]; pc.printf("id=2001, MAP= %d, Lambda= %d, Speed= %d, Oil_P= %d\n",MAP,Lambda,Speed,Oil_P); //pc.printf("MAP=%d, Lambda=%d, Speed=%d, Oil_P=%d\n",MAP,Lambda,Speed,Oil_P); }; void UpdateInfoDTA3(uint16_t newData[4]){ //Update values for DTA3 message Oil_Temp0=Oil_Temp; Oil_Temp=newData[1]; Volts0=Volts; Volts=newData[2]; pc.printf("id=2002, Oil_Temp= %d, Volts= %d\n",Oil_Temp,Volts); }; void UpdateInfoDTA4(uint16_t newData[4]){ //Update values for DTA4 message Gear0=Gear; Gear=newData[0]; pc.printf("id=2003, Gear= %d\n",Gear); }; void UpdateInfoDTA5(uint16_t newData[4]){ //Update values for DTA5 message }; void UpdateInfoDTA6(uint16_t newData[4]){ //Update values for DTA6 message Crank0=Crank; Crank=newData[2]; pc.printf("id=2005, Crank\n",Crank); }; void UpdateInfoLVDTFront(uint16_t newData[4]){ //Update values for LVDTFront message FL_LVDT0=FL_LVDT; //LVDTs are firstly written their voltage value, then overwritten by calculated pertentage value. FL_LVDT=newData[0]; FR_LVDT0=FR_LVDT; FR_LVDT=newData[1]; if(!(lvdtref & (1<<3))){ //Check if its the first time LVDT value is received. If yes than store it as Referrent value. if (FL_LVDT>FL_LVDT_Ref){ FL_LVDT=(FL_LVDT-FL_LVDT_Ref)*100/(LVDT_Max-FL_LVDT_Ref); }else{ FL_LVDT=(FL_LVDT-FL_LVDT_Ref)*100/FL_LVDT_Ref; }; //pc.printf("Im in 1\n"); }else{ FL_LVDT_Ref=FL_LVDT; FL_LVDT=0; lvdtref=lvdtref^(1<<3); //pc.printf("Ref=%d\n",FL_LVDT_Ref); }; //pc.printf("FL_LVDT=%d, FL_LVDT0=%d\n",abs(FL_LVDT),abs(FL_LVDT0)); //pc.printf("FR_LVDT=%d, FR_LVDT0=%d\n",abs(FR_LVDT),abs(FR_LVDT0)); if(!(lvdtref & (1<<2))){ if (FR_LVDT>FR_LVDT_Ref){ FR_LVDT=(FR_LVDT-FR_LVDT_Ref)*100/(LVDT_Max-FR_LVDT_Ref); }else{ FR_LVDT=(FR_LVDT-FR_LVDT_Ref)*100/FR_LVDT_Ref; }; }else{ FR_LVDT_Ref=FR_LVDT; FR_LVDT=0; lvdtref=lvdtref^(1<<2); }; //printf("FL_Ref=%d, FR_Ref=%d, RL_Ref=%d, RR_Ref=%d\n",FL_LVDT_Dpos,FR_LVDT_Dpos,RL_LVDT_Dpos,RR_LVDT_Dpos); }; void UpdateInfoLVDTRear(uint16_t newData[4]){ //Update values for LVDTRear message RL_LVDT0=RL_LVDT; RL_LVDT=newData[0]; RR_LVDT0=RR_LVDT; RR_LVDT=newData[1]; if(!(lvdtref & (1<<1))){ if (RL_LVDT>RL_LVDT_Ref){ RL_LVDT=(RL_LVDT-RL_LVDT_Ref)*100/(LVDT_Max-RL_LVDT_Ref); }else{ RL_LVDT=(RL_LVDT-RL_LVDT_Ref)*100/RL_LVDT_Ref; }; }else{ RL_LVDT_Ref=RL_LVDT; RL_LVDT=0; lvdtref=lvdtref^(1<<1); }; if(!(lvdtref & (1<<0))){ if (RR_LVDT>RR_LVDT_Ref){ RR_LVDT=(RR_LVDT-RR_LVDT_Ref)*100/(LVDT_Max-RR_LVDT_Ref); }else{ RR_LVDT=(RR_LVDT-RR_LVDT_Ref)*100/RR_LVDT_Ref; }; }else{ RR_LVDT_Ref=RR_LVDT; RR_LVDT=0; lvdtref=lvdtref^(1<<0); }; //pc.printf("RL_LVDT=%d, RL_LVDT0=%d\n",abs(RL_LVDT),abs(RL_LVDT0)); //pc.printf("RR_LVDT=%d, RR_LVDT0=%d\n",abs(RR_LVDT),abs(RR_LVDT0)); }; void UpdateInfoBrakes(uint16_t newData[4]){ //Update values for Brakes message Brakes0=Brakes; Brakes=newData[0]; };