Important changes to repositories hosted on mbed.com
Mbed hosted mercurial repositories are deprecated and are due to be permanently deleted in July 2026.
To keep a copy of this software download the repository Zip archive or clone locally using Mercurial.
It is also possible to export all your personal repositories from the account settings page.
Dependencies: mbed MatrixMath LPS25HB_I2C LSM9DS1 Matrix2 PIDcontroller LoopTicker SBUS_without_mainfile UsaPack solaESKF_wind Vector3 CalibrateMagneto FastPWM
run.cpp
- Committer:
- osaka
- Date:
- 2022-01-12
- Revision:
- 88:0fc5df2fddcb
- Parent:
- 87:981895e1d4f2
- Child:
- 89:316c20d3184c
File content as of revision 88:0fc5df2fddcb:
#include "global.hpp"
void run()
{
pc.printf("reading calibration value\r\n");
//キャリブレーション値を取得
U read_calib;
readEEPROM(eeprom_address, eeprom_pointeraddress, read_calib.c, N_EEPROM*4);
wait(3);
pos_tail = (int)read_calib.i[0];
roll_offset = (float)read_calib.i[10] / 200000.0f;
pitch_offset = (float)read_calib.i[11] / 200000.0f;
/*
agoffset[3] = float(read_calib.i[7]);
agoffset[4] = float(read_calib.i[8]);
agoffset[5] = float(read_calib.i[9]);
magbiasMin[0] = float(read_calib.i[1])/1000.0f;
magbiasMin[1] = float(read_calib.i[2])/1000.0f;
magbiasMin[2] = float(read_calib.i[3])/1000.0f;
magbiasMax[0] = float(read_calib.i[4])/1000.0f;
magbiasMax[1] = float(read_calib.i[5])/1000.0f;
magbiasMax[2] = float(read_calib.i[6])/1000.0f;
rpy_align.x = float(read_calib.i[10])/200000.0f;
rpy_align.y = float(read_calib.i[11])/200000.0f;
magCalibrator.setExtremes(magbiasMin,magbiasMax);
// tail_address[pos_tail] = (int)read_calib.i[10];
*/
/*
//センサの初期化・ジャイロバイアス・加速度スケールの取得
int n_init = 1000;
for(int i = 0;i<n_init;i++){
lsm.readAccel();
lsm.readMag();
lsm.readGyro();
agoffset[0] += lsm.ax * 9.8f;
agoffset[1] += lsm.ay * 9.8f;
agoffset[2] += lsm.az * 9.8f-9.8f;
agoffset[3] +=(lsm.gx * M_PI / 180.0f);
agoffset[4] +=(lsm.gy * M_PI / 180.0f);
agoffset[5] +=(lsm.gz * M_PI / 180.0f);
palt0 += lps.pressureToAltitudeMeters(lps.readPressureMillibars());
magref.x += lsm.mx;
magref.y += lsm.my;
magref.z += lsm.mz;
}
for(int i = 0;i<6;i++){
agoffset[i] /= float(n_init);
}
magref.x /= float(n_init);
magref.y /= float(n_init);
magref.z /= float(n_init);
palt0 /= float(n_init);
*/
switch(pos_tail){
case 0:
pc.printf("This MBED is Located at Left \r\n");
break;
case 1:
pc.printf("This MBED is Located at Center \r\n");
break;
case 2:
pc.printf("This MBED is Located at Right \r\n");
break;
default: // error situation
pc.printf("error\r\n");
break;
}
pc.printf("tail_address : %d\r\n", tail_address[pos_tail]);
pc.printf("Alignment values are %f(pitch deg) %f(roll deg)\r\n",rpy_align.x*180.0f/M_PI,rpy_align.y*180.0f/M_PI);
//ESKFの共分散設定
eskf.setGravity(0.0f,0.0f,9.8f);
eskf.setPhatPosition(0.1f);
eskf.setPhatVelocity(0.1f);
eskf.setPhatAngleError(0.5f);
eskf.setPhatAccBias(0.001f);
eskf.setPhatGyroBias(0.001f);
eskf.setPhatGravity(0.0000001f);
eskf.setQVelocity(0.001f);
eskf.setQAngleError(0.0000025f);
eskf.setQAccBias(0.000001f);
eskf.setQGyroBias(0.000001f);
Matrix Rgpspos(3,3);
setDiag(Rgpspos,1.0f);
Matrix Rgpsvel(3,3);
Rgpsvel(1,1) = 0.01f;
Rgpsvel(2,2) = 0.01f;
Rgpsvel(3,3) = 0.1f;
Matrix Rgps(5,5);
setDiag(Rgps,0.05f);
Rgps(4,4) = 0.1f;
Rgps(5,5) = 0.1f;
float dynAccCriteria = 0.4f;
Matrix Racc(3,3);
setDiag(Racc,100.0f);
Matrix RaccDyn(3,3);
setDiag(RaccDyn,5000.0f);
Matrix Rheading(1,1);
Rheading(1,1) = 0.01f;
wait(0.5);
Timer _t;
_t.start();
/*
magCalibrator.setExtremes(magbiasMin,magbiasMax);
for(int i = 0; i < 1000; i++){
getIMUval();
}
ekf.defineQhat(rpy_align);
float sum2accnorm = 0;
float sumaccnorm = 0;
for(int i = 0; i < 1000; i++){
float tstart = _t.read();
getIMUval();
ekf.updateStaticAccMeasures(acc,accref);
ekf.updateGyroBiasConstraints(gyro);
ekf.fuseErr2Nominal();
ekf.resetBias();
//ekf.updateMagMeasures(mag);
ekf.computeAngles(rpy, rpy_align);
sumaccnorm += acc.Norm();
sum2accnorm += acc.Norm()*acc.Norm();
float tend = _t.read();
att_dt = (tend-tstart);
}
accref.z = sumaccnorm / 1000.0f;
*/
while(1)
{
float tstart = _t.read();
getIMUval();
eskf.updateNominal(MatrixMath::Vector2mat(acc),MatrixMath::Vector2mat(gyro),att_dt);
eskf.updateErrState(MatrixMath::Vector2mat(acc),MatrixMath::Vector2mat(gyro),att_dt);
Vector3 pi(updateValues.pi[0], updateValues.pi[1], updateValues.pi[2]);
Vector3 vi(updateValues.vi[0], updateValues.vi[1], updateValues.vi[2]);
eskf.updateGPS(MatrixMath::Vector2mat(pi),palt,MatrixMath::Vector2mat(vi),Rgps);
float heading = atan2f(-mag.y,mag.x);
eskf.updateHeading(heading,Rheading);
Matrix Raccpreflight(3,3);
setDiag(Raccpreflight,5.0f);
eskf.updateAcc(MatrixMath::Vector2mat(acc),Raccpreflight);
bool preflightCheck = true;
Matrix gyroBias = eskf.getGyroBias();
if(fabsf(gyro.x-gyroBias(1,1))>2.0f || fabsf(gyro.y-gyroBias(2,1))>2.0f || fabsf(gyro.z-gyroBias(3,1))>2.0f){
preflightCheck = false;
//twelite.serial.printf("PreFlight Check : high gyro value\r\n");
}
Matrix accBias = eskf.getAccBias();
if(fabsf(acc.x-accBias(1,1))>2.0f || fabsf(acc.y-gyroBias(2,1))>2.0f){
preflightCheck = false;
//twelite.serial.printf("PreFlight Check : high acc value\r\n");
}
Matrix vihat = eskf.getVihat();
if(fabsf(vihat(1,1))>2.0f || fabsf(vihat(2,1))>2.0f||fabsf(vihat(3,1))>2.0f){
preflightCheck = false;
//twelite.serial.printf("PreFlight Check : high velocity value\r\n");
}
Matrix pihat = eskf.getPihat();
if(fabsf(pihat(1,1))>2.0f || fabsf(pihat(2,1))>2.0f||fabsf(pihat(3,1))>2.0f){
preflightCheck = false;
//twelite.serial.printf("PreFlight Check : not home position\r\n");
}
if(sbus.failSafe){
preflightCheck = false;
//twelite.serial.printf("PreFlight Check : no RC\r\n");
}
// sbusデータの読み込み
for (int i =0 ; i < 16;i ++){
rc[i] = 0.65f * mapfloat(float(sbus.getData(i)),368,1680,-1,1) + (1.0f - 0.65f) * rc[i]; // mapped input
}
if (rc[4]>-0.3f && rc[6] < -0.3f){
preflightCheck = false;
//twelite.serial.printf("PreFlight Check : autoPilot enabled\r\n");
}
if(!(updateValues.gps_fix == 0x02 || updateValues.gps_fix == 0x03)){
preflightCheck = false;
//twelite.serial.printf("PreFlight Check : no gps lock\r\n");
}
if(preflightCheck == true){
break;
}
break; //pre-flight checkなし
}
tail.Subscribe(tail_address[pos_tail], &(updateValues));
LoopTicker PIDtick;
PIDtick.attach(calcServoOut,PID_dt);
float tgps = _t.read();
float theading = _t.read();
while(1)
{
float tstart = _t.read();
//センサの値を取得
getIMUval();
//ekfの更新
eskf.updateNominal(MatrixMath::Vector2mat(acc),MatrixMath::Vector2mat(gyro),att_dt);
eskf.updateErrState(MatrixMath::Vector2mat(acc),MatrixMath::Vector2mat(gyro),att_dt);
headingUpdateFlag = false;
if(tstart-theading>0.05f){
Matrix euler = eskf.computeAngles();
if(fabsf(euler(2,1))<30.0f*M_PI/180.0f){
headingUpdateFlag = true;
theading = _t.read();
}
}
//eskf.updateAcc(MatrixMath::Vector2mat(acc),Racc);
pc.printf("%f %f %f %f %f %f\n", updateValues.pi[0], updateValues.pi[1], updateValues.pi[2], updateValues.vi[0], updateValues.vi[1], updateValues.vi[2]);
if((gpsitow != updateValues.gps_itow) && (updateValues.gps_fix == 0x03)){
gpsitow = updateValues.gps_itow;
Vector3 pi(updateValues.pi[0], updateValues.pi[1], updateValues.pi[2]);
Vector3 vi(updateValues.vi[0], updateValues.vi[1], updateValues.vi[2]);
eskf.updateGPS(MatrixMath::Vector2mat(pi),palt,MatrixMath::Vector2mat(vi),Rgps);
//eskf.updateGPSPosition(MatrixMath::Vector2mat(pi),palt,Rgpspos);
//eskf.updateGPSVelocity(MatrixMath::Vector2mat(vi),Rgpsvel);
}else if(headingUpdateFlag == true){
float heading = atan2f(-mag.y,mag.x);
eskf.updateHeading(heading,Rheading);
}else{
Matrix dynacc = eskf.calcDynAcc(MatrixMath::Vector2mat(acc));
dynaccnorm2 = dynacc(1,1)*dynacc(1,1)+dynacc(2,1)*dynacc(2,1)+dynacc(3,1)*dynacc(3,1);
//twelite.serial.printf("%f\r\n",sqrt(dynaccnorm2));
if(dynaccnorm2 > dynAccCriteria*dynAccCriteria){
eskf.updateAcc(MatrixMath::Vector2mat(acc),RaccDyn);
}else{
eskf.updateAcc(MatrixMath::Vector2mat(acc),Racc);
}
}
PIDtick.loop();
//制御時間を計測
float tend = _t.read();
att_dt = (tend-tstart);
}
}