Project aiming to make a self-controlled solar reflector
Dependencies: Accelerometer LCD Inverter Algorithm MotorDriver Anemometer GUI ArduinoJson Misc Definitions Pushbutton WebSocketClient temp_fan
main.cpp
- Committer:
- khaiminhvn
- Date:
- 2021-02-10
- Revision:
- 0:74d6e93ec977
- Child:
- 1:07f86b4db069
File content as of revision 0:74d6e93ec977:
/* For settings of system behaviour, see Defs_sett.h For pin assignment list, see PinAssignment.h */ //INCLUDES #include "mbed.h" #include "Accelerometer.h" #include "Anemometer.h" #include "Algorithm.h" #include "MotorDriver.h" #include "Defs_Sett.h" #include "Pushbutton.h" #define timer_read_s(x) chrono::duration_cast<chrono::seconds>((x).elapsed_time()).count() //Initialize Global Variables Accelerometer acc(40000); //Accelerometer Anemometer ane; // MotorDriver motor; LowPowerTimer t,t_mode; Ticker ti; int mode = OP_NORMAL; Pushbutton bt_fn(PIN_BT1,&mode); Pushbutton bt_inc(PIN_BT2); Pushbutton bt_dec(PIN_BT3); Pushbutton* Pushbutton::LastPressed = &bt_fn; //Function Declarations void checkWind(); //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// int main() { float ang_P,ang_R; float ref_R1,ref_R2; int flag_time = 1, flag_idle = 0; int t_elapsed; int wthres = WIND_THRES_INIT; ti.attach(&checkWind,TICK_WIND); t.start(); //Start timer while(1) { switch(mode) { case OP_NORMAL: if(flag_time) //If delay interval has passed { ti.attach(&checkWind,TICK_WIND); //Enable Wind Safety checkWind(); //Get Angle of Panel ang_P = acc.getAngle(S_PANEL); //Calculate the Angle of Both Reflector ref_R1 = Algorithm::calcAngle(1,ang_P); ref_R2 = Algorithm::calcAngle(2,ang_P); //Moving Reflector 1 ang_R = acc.getAngle(S_R1); while(ang_R <= ref_R1 && acc.checkAngle(ref_R1,ang_R)) { if(mode != OP_NORMAL) {break;} motor.moveForward(M1); ang_R = acc.getAngle(S_R1); } while(ang_R >= ref_R1 && acc.checkAngle(ref_R1,ang_R)) { if(mode != OP_NORMAL) {break;} motor.moveBackward(M1); ang_R = acc.getAngle(S_R1); } motor.stop(); //Moving Reflector 2 ang_R = acc.getAngle(S_R2); while(ang_R <= ref_R2 && acc.checkAngle(ref_R2,ang_R)) { if(mode != OP_NORMAL) {break;} motor.moveForward(M2); ang_R = acc.getAngle(S_R2); } while(ang_R >= ref_R2 && acc.checkAngle(ref_R2,ang_R)) { if(mode != OP_NORMAL) {break;} motor.moveBackward(M2); ang_R = acc.getAngle(S_R2); } motor.stop(); flag_time = 0; //Initiate delay t.reset(); //Reset timer } t_elapsed = (int)timer_read_s(t); flag_time = (t_elapsed >= TIME_NORMAL) ? 1 : 0; //Enable flag if delay interval has passed break; //////////////////////////////////////////////////////////////////////////////// case OP_WIND: //Move all motor backward motor.moveBackward(M_ALL); flag_time = 1; //Set the system in motion once windspeed has subsided break; //////////////////////////////////////////////////////////////////////////////// case OP_MANUAL1: ti.detach(); //Disable Wind Safety //TIMEOUT //////////////////////////////////////////////////////////////////// if(!bt_inc.read() && !bt_dec.read() && !flag_idle) //Check if button is not pressed { t_mode.reset(); t_mode.start(); flag_idle = 1; //Indicate idling } else if(timer_read_s(t_mode) > TIME_MANUAL_TIMEOUT) { mode = OP_NORMAL; } //////////////////////////////////////////////////////////////////// while(bt_inc.read()) //Extend { flag_idle = 0; motor.moveForward(M1); } while(bt_dec.read()) //Retract { flag_idle = 0; motor.moveBackward(M1); } if(!bt_inc.read() && !bt_dec.read()) { motor.stop(); } flag_time = 1; //Set the system in motion once done adjusting break; //////////////////////////////////////////////////////////////////////////////// case OP_MANUAL2: ti.detach(); //Disable Wind Safety //TIMEOUT //////////////////////////////////////////////////////////////////// if(!bt_inc.read() && !bt_dec.read() && !flag_idle) //Check if button is not pressed { t_mode.reset(); t_mode.start(); flag_idle = 1; //Indicate idling } else if(timer_read_s(t_mode) > TIME_MANUAL_TIMEOUT) { mode = OP_NORMAL; } //////////////////////////////////////////////////////////////////// while(bt_inc.read()) //Extend { flag_idle = 0; motor.moveForward(M2); } while(bt_dec.read()) //Retract { flag_idle = 0; motor.moveBackward(M2); } if(!bt_inc.read() && !bt_dec.read()) { motor.stop(); } flag_time = 1; //Set the system in motion once done adjusting break; //////////////////////////////////////////////////////////////////////////////// case OP_WSETTING: motor.stop(); ti.detach(); //Disable Wind Safety //TIMEOUT //////////////////////////////////////////////////////////////////// if(!bt_inc.read() && !bt_dec.read() && !flag_idle) //Check if button is not pressed { t_mode.reset(); t_mode.start(); flag_idle = 1; //Indicate idling } else if(timer_read_s(t_mode) > TIME_WSETTING_TIMEOUT) { mode = OP_NORMAL; } //////////////////////////////////////////////////////////////////// if(bt_inc.read() && wthres < WIND_THRES_MAX) { ane.setThres(++wthres); } else if(bt_inc.read() && wthres > WIND_THRES_MIN) { ane.setThres(--wthres); } flag_time = 1; //Set the system in motion once done adjusting break; } } } //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //FUNCTIONS void checkWind() { ane.checkWind(&mode); }