
3/18 操舵中央
Dependencies: mbed
Fork of Control_Main_Full_ver2 by
main.cpp
- Committer:
- taurin
- Date:
- 2016-02-25
- Revision:
- 5:6b74fa61198e
- Parent:
- 4:4a13dd263a7b
- Child:
- 6:7484315ba88a
File content as of revision 5:6b74fa61198e:
//中央can program #include "mbed.h" #define WAIT_LOOP_TIME 0.1 #define YOKUTAN_DATAS_NUM 4 #define IMPUT_DATAS_NUM 2 #define SEND_DATAS_CAN_ID 100 #define SEND_DATAS_TIME 0.5 #define THRESHOLD_OH_VALUE 0.14 #define CALC_CADENCE_TIME 0.05 CAN can_R(p9,p10); CAN can_L(p30,p29); Serial toKeikiSerial(p13,p14); Serial pc(USBTX,USBRX); DigitalIn eruron_R(p23); DigitalIn eruron_L(p19); DigitalIn drug_R(p22); DigitalIn drug_L(p20); DigitalOut myled1(LED1); DigitalOut myled2(LED2); Ticker sendDatasTicker; Ticker cadenceTicker; Timer cadenceTimer; AnalogIn p(p15); AnalogIn q(p16); char yokutanDatas_R[YOKUTAN_DATAS_NUM]; char yokutanDatas_L[YOKUTAN_DATAS_NUM]; char inputDatas_R[IMPUT_DATAS_NUM]; char inputDatas_L[IMPUT_DATAS_NUM]; char cadence = 0; bool stateP = true; bool stateQ = true; bool stateP_old = true; bool stateQ_old = true; CANMessage recmsg_R; CANMessage recmsg_L; void InputControlValues(){ inputDatas_R[1] = (char)drug_R; inputDatas_L[1] = (char)drug_L; if(eruron_R){ inputDatas_R[0] = 0; inputDatas_L[0] = 2; } else if(eruron_L){ inputDatas_R[0] = 2; inputDatas_L[0] = 0; } else{ inputDatas_R[0] = 1; inputDatas_L[0] = 1; } } void toString_R(){ pc.printf("R:"); for(int i = 0; i < IMPUT_DATAS_NUM; i++){ pc.printf("%d:%i ",i,inputDatas_R[i]); } } void toString_L(){ pc.printf("L:"); for(int i = 0; i < IMPUT_DATAS_NUM; i++){ pc.printf("%d:%i ",i,inputDatas_L[i]); } pc.printf("\n\r"); } void SendDatas(){ can_R.write(CANMessage(SEND_DATAS_CAN_ID, inputDatas_R, IMPUT_DATAS_NUM)); can_L.write(CANMessage(SEND_DATAS_CAN_ID, inputDatas_L, IMPUT_DATAS_NUM)); for(int i = 0; i < YOKUTAN_DATAS_NUM; i++){ toKeikiSerial.putc(yokutanDatas_R[i]); toKeikiSerial.putc(yokutanDatas_L[i]); } for(int i = 0; i < IMPUT_DATAS_NUM; i++){ toKeikiSerial.putc(inputDatas_R[i]); toKeikiSerial.putc(inputDatas_L[i]); } toKeikiSerial.putc(cadence); pc.printf("test\n\r"); } void calcCadence(){ //pc.printf("%f,%f\n\r",p.read(),q.read()); if(p.read() > THRESHOLD_OH_VALUE) stateP = true; else stateP = false; if(q.read() > THRESHOLD_OH_VALUE) stateQ = true; else stateQ = false; if((stateP == true && stateP_old == false) || stateQ == true && stateQ_old == false){ cadenceTimer.stop(); cadence = (char)30.0/cadenceTimer.read(); pc.printf("Cadence:%i\n\r",cadence); cadenceTimer.reset(); cadenceTimer.start(); } stateP_old = stateP; stateQ_old = stateQ; } void init(){ cadenceTimer.start(); cadenceTicker.attach(calcCadence, CALC_CADENCE_TIME); sendDatasTicker.attach(SendDatas,SEND_DATAS_TIME); for(int i = 0; i < IMPUT_DATAS_NUM; i++){ inputDatas_R[i] = 0; inputDatas_L[i] = 0; } } void receiveDatas(){ if(can_R.read(recmsg_R)){ for(int i = 0; i < recmsg_R.len; i++){ yokutanDatas_R[i] = recmsg_R.data[i]; } myled1 = !myled1; } if(can_L.read(recmsg_L)){ for(int i = 0; i < recmsg_L.len; i++){ yokutanDatas_L[i] = recmsg_L.data[i]; } myled2 = !myled2; } } int main(){ init(); while(1){ InputControlValues(); wait_us(10); receiveDatas(); //toString_R(); // toString_L(); wait(WAIT_LOOP_TIME); } }