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Dependencies: 2_MPU9250 mbed 2_GPS_GMS6-CR6 2_LPS33HW 2_EEPROM 2_P7100
main.cpp
- Committer:
- rary
- Date:
- 2020-11-17
- Revision:
- 1:d9208e6f6952
- Parent:
- 0:15c3892eee6b
File content as of revision 1:d9208e6f6952:
#include "mbed.h"
#include "math.h"
#include "EEPROM.h"
#include "LPS33HW.h"
#include "P7100.h"
#include "MPU9250.h"
#include "GMS6_CR6.h"
Timer t; //時間計測
Serial pc(USBTX, USBRX);
LPS33HW lps(p9, p10);
EEPROM rom(p9, p10);
MPU9250 mpu(p9, p10);
P7100 p7100(p5, p6, p7, p8);
Serial twe(p28, p27); //EFM:p28, p27
GMS6_CR6 gps(p13, p14); //EFM:p13, p14
DigitalIn Flight_Pin(p30);
DigitalOut ThrustValve(p21);
DigitalOut DepressValve(p22);
DigitalOut LED_1(p23);
DigitalOut LED_2(p24);
DigitalOut LED_3(p25);
DigitalOut LED_4(p26);
void get_save_low(); //自作関数プロトタイプ宣言
float get_save_high(); //自作関数プロトタイプ宣言
void recovery(); //自作関数プロトタイプ宣言
void check();
char s[64]; //データ取得配列
float accel[3], gyro[3]; //MPU9250data
float AX, AY, AZ, A, GX, GY, GZ; //MPU9250data
float T; //時刻データ
float P; //気圧データ取得
float V; //電圧取得
float TP = 0.25 * V - 0.125; //タンク圧力換算
int pointer_high = 0; //EEPROM保存アドレス(high)
int pointer_low = 0; //EEPROM保存アドレス(low)
float lat_north; //GPS緯度
float lon_east; //GPS経度
float GPS[2]; //GPSデータ格納配列
//main
int main()
{
pc.baud(460800); //ボーレート変更
twe.baud(230400); //tweボーレート変更
ThrustValve = 0; //DigitalOut初期化
DepressValve = 0;
LED_1 = 0;
LED_2 = 0;
LED_3 = 0;
LED_4 = 0;
//判定用変数
double groundP = 0; //地上の気圧データ
double heightP = 0; //高度TBDmの気圧
double judgeP[5]; //判定用気圧データ
double pastP = 0; //一つ前の気圧データ
double dP[5]; //気圧データの差異
int judge = 0; //判定結果
int i = 0; //差異配列の番号
memset(judgeP, 0, 5);
memset(dP, 1, 5);
int n_dvalve = 0; //脱圧バルブの開閉回数
t.start(); //timer Start
//sensor Setup
lps.start(1); //気圧センサスタート
lps.start(1); //気圧センサスタート
wait(0.1);
mpu.start(); //MPU9250 start&setup
mpu.accelsetup(3);
mpu.gyrosetup(3);
mpu.AKsetup(1);
wait(0.2);
pc.printf("Power ON!\r\n");
twe.printf("Power ON!\r\n");
pc.printf("Flight Test!\r\n");
twe.printf("Flight Test!\r\n");
wait(2);
//Check mode
pc.printf("Check mode Start!\r\n");
twe.printf("Check mode Start!\r\n");
//valve check
DepressValve = 1;wait(1);DepressValve = 0;
wait(3);
DepressValve = 1;wait(1);DepressValve = 0;
wait(3);
ThrustValve = 1;wait(1);ThrustValve = 0;
wait(1);
ThrustValve = 1;wait(1);ThrustValve = 0;
wait(2);
for(int c = 0; c < 80 ; c++) {
LED_1 = 1;
LED_2 = 1;
LED_3 = 1;
LED_4 = 1;
check();
LED_1 = 0;
LED_2 = 0;
LED_3 = 0;
LED_4 = 0;
wait(0.5);
}
//地上の気圧取得&計算
pc.printf("Calibration Start!\r\n");
twe.printf("Calibration Start!\r\n");
for(int a = 0; a < 1000; a++) {
groundP = groundP + lps.data_read();
wait_ms(50);
}
groundP = groundP/1000; //地上の気圧データ
heightP = 0.999517419 * groundP; //高度4.0m@10度の気圧を計算
wait(2);
pc.printf("groundP:%f, heightP:%f\r\n", groundP, heightP);
twe.printf("groundP:%f, heightP:%f\r\n", groundP, heightP);
wait(2);
twe.printf("groundP:%f, heightP:%f\r\n", groundP, heightP);
//Wait mode
pc.printf("Wait mode Start!\r\n");
twe.printf("Wait mode Start!\r\n");
LED_1 = 1;
while(Flight_Pin == 0) {
get_save_low(); //data get&save(&downlink)
wait_ms(950);
}
pc.printf("Wait mode Finish!\r\n");
twe.printf("Wait mode Finish!\r\n");
LED_1 = 0;
//Flight mode
pc.printf("Flight mode Start!\r\n");
twe.printf("Flight mode Start!\r\n");
LED_2 = 1;
while(1) {
judgeP[i] = 0; //初期化
for(int n = 0; n < 2; n++) { //2回に一回送信
judgeP[i] = judgeP[i] + get_save_high(); //data get&save
}
twe.printf("\r\n"); //送信トリガー
//判定
judgeP[i] = judgeP[i]/2; //判定用気圧を計算
dP[i] = judgeP[i] - pastP; //差異を取得
pastP = judgeP[i]; //判定用気圧値を過去データに置き換える
i++;
if(i == 5) {
i = 0;
}
if(judgeP[0] > heightP && judgeP[1] > heightP && judgeP[2] > heightP && judgeP[3] > heightP && judgeP[4] > heightP) { //高度判定
judge = 1;
break;
}
else if(dP[0] <= 0 && dP[1] <= 0 && dP[2] <= 0 && dP[3] <= 0 && dP[4] <= 0 ) {
judge = 1;
break;
}
}
pc.printf("Flight mode Finish!\r\n");
twe.printf("Flight mode Finish!\r\n");
LED_2 = 0;
//thruster mode
if(judge == 1) {
pc.printf("Thruster mode Start!\r\n");
twe.printf("Thruster mode Start!\r\n");
LED_3 = 1;
ThrustValve = 1; //スラスタ電磁弁開
for(int k = 0; k < 250; k++) {
for(int n = 0; n < 2; n++) { //2回に一回送信
get_save_high(); //data get&save
}
twe.printf("\r\n"); //送信トリガー
}
ThrustValve = 0; //スラスタ電磁弁閉
pc.printf("Thruster mode Finish!\r\n");
twe.printf("Thruster mode Finish!\r\n");
}
//depress mode
pc.printf("Depress mode Start!\r\n");
twe.printf("Depress mode Start!\r\n");
LED_4 = 1;
memset(judgeP, 0, 5); //判定初期化
memset(dP, 1, 5);
pastP = 0;
while(1) {
DepressValve = 1; //脱圧電磁弁開
judgeP[i] = 0; //初期化
for(int k = 0; k < 150; k++) {
for(int n = 0; n < 2; n++) { //2回に一回送信
judgeP[i] = judgeP[i] + get_save_high(); //data get&save
}
twe.printf("\r\n"); //送信トリガー
//判定
judgeP[i] = judgeP[i]/2; //判定用気圧を計算
dP[i] = judgeP[i] - pastP; //差異を取得
pastP = judgeP[i]; //判定用気圧値を過去データに置き換える
if(dP[0] <= 0 && dP[1] <= 0 && dP[2] <= 0 && dP[3] <= 0 && dP[4] <= 0 && n_dvalve > 2 || n_dvalve == 4) { //着地判定
judge = 3;
break;
}
i++;
if(i == 5) {
i = 0;
}
}
DepressValve = 0; //脱圧電磁弁閉
wait_ms(100);
n_dvalve++;
if(judge == 3) {
break; //地上判定を通過したらループを抜ける
}
}
pc.printf("Depress mode Finish!\r\n");
twe.printf("Depress mode Finish!\r\n");
LED_4 = 0;
//recovery mode
pc.printf("Recovery mode Start!\r\n");
twe.printf("Recovery mode Start!\r\n");
LED_1 = 1;
LED_2 = 1;
LED_4 = 1;
while(1) {
recovery();
}
pc.printf("Recovery mode Finish!\r\n");
twe.printf("Recovery mode Finish!\r\n");
}
//自作関数
void get_save_low()
{
T = t.read(); //時刻データ取得
P = lps.data_read(); //気圧データ取得
V = p7100.v_read(); //電圧取得
TP = 0.25 * V - 0.125; //タンク圧力換算
mpu.accel_read(3, accel);
mpu.gyro_read(3, gyro);
AX = accel[0];
AY = accel[1];
AZ = accel[2];
A = sqrtf(AX*AX + AY*AY + AZ*AZ);
GX = gyro[0];
GY = gyro[1];
GZ = gyro[2];
sprintf(s, "%8.3f %8.3f %6.3f %5.3f %5.2f %5.2f %5.2f %5.2f %5.2f\r\n", T, P, TP, AX, AY, AZ, GX, GY, GZ); //floatからchar*へ変換
rom.write_low(pointer_low, s, 64); // write tha data
twe.printf("%8.3f %8.3f %6.3f %5.2f\r\n", T, P, TP, A); //無線機送信
pointer_low = pointer_low + 64; //アドレスずらし
pc.printf("%s\r\n", s); //check用
memset(s, '\0', 64 ); //初期化
}
float get_save_high()
{
T = t.read(); //時刻データ取得
P = lps.data_read(); //気圧データ取得
V = p7100.v_read(); //電圧取得
TP = 0.25 * V - 0.125; //タンク圧力換算
mpu.accel_read(3, accel);
mpu.gyro_read(3, gyro);
AX = accel[0];
AY = accel[1];
AZ = accel[2];
A = sqrtf(AX*AX + AY*AY + AZ*AZ);
GX = gyro[0];
GY = gyro[1];
GZ = gyro[2];
sprintf(s, "%8.3f %8.3f %6.3f %5.2f %5.2f %5.2f %5.2f %5.2f %5.2f\r\n", T, P, TP, AX, AY, AZ, GX, GY, GZ); //floatからchar*へ変換
rom.write_high(pointer_high, s, 64); // write tha data
twe.printf("%8.3f %8.3f %6.3f %5.2f,", T, P, TP, A); //無線機送信
pointer_high = pointer_high + 64; //アドレスずらし
pc.printf("%s\r\n", s); //check用
memset(s, '\0', 64 ); //初期化
return P;
}
void recovery()
{
T = t.read(); //時刻データ取得
V = p7100.v_read(); //電圧取得
TP = 0.25 * V - 0.125; //タンク圧力換算
sprintf(s, "%8.3f %6.3f\r\n", T, TP); //floatからchar*へ変換
rom.write_low(pointer_low, s, 64); // write tha data
pointer_low = pointer_low + 64; //アドレスずらし
pc.printf("%s\r\n", s); //check用
twe.printf("%8.3f %6.3f, ", T, TP); //無線機送信
memset(s, '\0', 64 ); //初期化
gps.read_solid(GPS); //測位データ取得
lat_north = GPS[0];
lon_east = GPS[1];
if(lat_north > 20 && lat_north < 90 && lon_east > 90 && lon_east < 180) { //緯度が正常な値のときのみ送信
twe.printf("%f,%f", lat_north, lon_east); //送信
pc.printf("%f,%f\r\n", lat_north, lon_east); //check用
}
twe.printf("\r\n"); //無線機トリガー
memset(GPS,'\0', 2);
}
void check()
{
T = t.read(); //時刻データ取得
P = lps.data_read(); //気圧データ取得
V = p7100.v_read(); //電圧取得
TP = 0.25 * V - 0.125; //タンク圧力換算
mpu.accel_read(3, accel);
mpu.gyro_read(3, gyro);
AX = accel[0];
AY = accel[1];
AZ = accel[2];
A = sqrtf(AX*AX + AY*AY + AZ*AZ);
GX = gyro[0];
GY = gyro[1];
GZ = gyro[2];
sprintf(s, "%8.3f %8.3f %6.3f %5.2f %5.2f %5.2f %5.2f %5.2f %5.2f %5.2f", T, P, TP, AX, AY, AZ, A, GX, GY, GZ); //floatからchar*へ変換
twe.printf("%s\r\n", s); //送信
pc.printf("%s\r\n\r\n", s); //check用
memset(s, '\0', 64 ); //初期化
gps.read_solid(GPS); //測位データ取得
lat_north = GPS[0];
lon_east = GPS[1];
if(lat_north > 20 && lat_north < 90 && lon_east > 90 && lon_east < 180) { //緯度が正常な値のときのみ送信
twe.printf("%f,%f\r\n", lat_north, lon_east); //送信
pc.printf("%f,%f\r\n", lat_north, lon_east); //check用
}
memset(GPS,'\0', 2);
}