Update 'Teensy4.1_Datalogger new.ino'

Added LEDs, Wind Vain, Temp Sensor
This commit is contained in:
Julian Graf 2022-08-31 16:48:55 +00:00
parent 8e2e99ad2c
commit eb9a5f6b90

View File

@ -2,7 +2,7 @@
// //
/* /*
Name: Teensy4.1_Datalogger new.ino Name: Teensy4.1_Datalogger new.ino
Created: 03.05.2022 12:04:32 Created: 31.08.2022 18:39:32
Author: GAMINGMASHEEN\Julian Graf Author: GAMINGMASHEEN\Julian Graf
*/ */
@ -49,11 +49,11 @@ const char software_name[] = "Software: Teensy_datalog V.2";
const int min_voltage_batterie = 13; const int min_voltage_batterie = 13;
const int fixed_resistor_temperatur = 500; const int fixed_resistor_temperatur = 500;
const int power_Temp_sensor = 34, power_Windfahne = 36, LED_Fail = 24, const int power_Temp_sensor = 34, power_Windfahne = 36, LED_Fail = 24, R_Temp_fix = 500,
LED_Write = 5, LED_Normal = 6, LED_Batterie = 7, LED_Write = 5, LED_Normal = 6, LED_Batterie = 7, Grenz_U_Batterie = 13,
taster_manuell_speichern = 28, Windfahne = 20, T_sensor_input = 17, Batterie_input = 38; taster_manuell_speichern = 28, Windfahne = 20, T_sensor_input = 17, Batterie_input = 38;
int last_second, last_minute, last_hour; int last_second, last_minute, last_hour, seconds_for_blink;
struct calculations { struct calculations {
@ -114,7 +114,7 @@ public:
struct anemomenter_maessurement { struct anemomenter_maessurement {
public: public:
void setup(int pin) { void setup(int pin) {
this->reed_contact = Bounce(pin, 10); this->reed_contact = Bounce(pin, 10);
@ -125,7 +125,7 @@ public:
count_per_second++; count_per_second++;
} }
} }
void save_wind_speed() { void save_wind_speed() {
wind_speed_per_second[saved_seconds] = 0.4 * count_per_second; wind_speed_per_second[saved_seconds] = 0.4 * count_per_second;
saved_seconds++; saved_seconds++;
@ -144,15 +144,15 @@ public:
file.printf("Arith. Mittel: % f,\tStandard Abw.: %f\t", values[i].arithmetic_mean, values[i].arithmetic_deviation); file.printf("Arith. Mittel: % f,\tStandard Abw.: %f\t", values[i].arithmetic_mean, values[i].arithmetic_deviation);
file.printf("Quadr. Mittel: % f,\tStandard Abw.: %f\t", values[i].square_mean, values[i].square_deviation); file.printf("Quadr. Mittel: % f,\tStandard Abw.: %f\t", values[i].square_mean, values[i].square_deviation);
file.printf("Kub. Mittel: %f,\tStandard Abw.: %f\t", values[i].cubic_mean, values[i].cubic_deviation); file.printf("Kub. Mittel: %f,\tStandard Abw.: %f\t", values[i].cubic_mean, values[i].cubic_deviation);
file.printf("Übersprungene Sek.: %i\n", values[i].seconds_skipped); file.printf("Übersprungene Sek.: %i\n", values[i].seconds_skipped);
} }
file.printf("Übersprungene Min.: %i\n", 60 - saved_minutes); file.printf("Übersprungene Min.: %i\n", 60 - saved_minutes);
saved_minutes = 0; saved_minutes = 0;
} }
private: private:
int count_per_second = 0; int count_per_second = 0;
int saved_seconds = 0; int saved_seconds = 0;
int saved_minutes = 0; int saved_minutes = 0;
@ -164,14 +164,60 @@ private:
}anemometer_1, anemometer_2, anemometer_3; }anemometer_1, anemometer_2, anemometer_3;
struct temp_sensor {
private:
int U_Temp;
int R_Temp;
float Temp = 0;
short int array_Temp_datenblatt[20] = { -30, -20, -10, 0, 10, 20, 25, 30, 40, 50,
391, 424, 460, 498, 538, 581, 603, 626, 672, 722};
public:
void measure() {
digitalWrite(power_Temp_sensor, HIGH);
U_Temp = analogRead(T_sensor_input);
digitalWrite(power_Temp_sensor, LOW);
R_Temp = R_Temp_fix / (1023 - U_Temp);
for (int t = 0; t < 9; t++) {
if ((R_Temp >= array_Temp_datenblatt[t + 10]) && (R_Temp <= array_Temp_datenblatt[t + 11])) {
Temp = array_Temp_datenblatt[t] + ((R_Temp - array_Temp_datenblatt[t + 10]) * (array_Temp_datenblatt[t + 1] - array_Temp_datenblatt[t]) / (array_Temp_datenblatt[t + 11] - array_Temp_datenblatt[t + 10]));
}
}
}
// Define Function Prototypes that use User Types below here or use a .h file void file_print() {
// printf("Temperatur: %f.2 °C\n", Temp);
}
} temp_sensor_1;
struct wind_vain {
private:
float wind_sec;
float wind_summ = 0;
int values[60];
int saved_minutes = 0;
public:
void measure() {
digitalWrite(power_Windfahne, HIGH);
wind_sec = map(analogRead(Windfahne), 0, 1023, 20, 350);
digitalWrite(power_Windfahne, LOW);
wind_summ += wind_sec;
}
void calculate() {
values[saved_minutes] = wind_summ;
wind_summ = 0;
saved_minutes++;
}
void file_print() {
for (int i = 0; i < saved_minutes; i++) {
printf("Windrichtung in ° Winkel: %f.2\n", values[i]);
}
saved_minutes = 0;
}
}wind_vain_1;
// Define Functions below here or use other .ino or cpp files
//
void dateTime(uint16_t* date, uint16_t* time, uint8_t* ms10) { void dateTime(uint16_t* date, uint16_t* time, uint8_t* ms10) {
@ -186,16 +232,16 @@ void dateTime(uint16_t* date, uint16_t* time, uint8_t* ms10) {
} }
void write_sd() { void write_sd() {
digitalWrite(LED_Write, HIGH);
char file_name[50]; char file_name[50];
FsDateTime::setCallback(dateTime); FsDateTime::setCallback(dateTime);
sprintf(file_name, "Windmessmast-%d.%d.%d_%d:%d.txt", year(), month(), day(), hour(), minute()); sprintf(file_name, "Windmessmast-%d.%d.%d_%d:%d.txt", year(), month(), day(), hour(), minute());
sd.begin(SD_CONFIG); sd.begin(SD_CONFIG);
if (file.open(file_name, FILE_WRITE)) { if (file.open(file_name, FILE_WRITE)) {
Serial.println("Start SD schreiben"); Serial.println("Start SD schreiben");
file.println("Messdaten von Windmessmasst"); file.println("Messdaten von Windmessmasst");
file.println(); file.println();
file.println("Data logger : Teensy 4.1"); file.println("Data logger : Teensy 4.1");
file.println(software_name); file.println(software_name);
@ -207,25 +253,47 @@ void write_sd() {
anemometer_2.file_print(); anemometer_2.file_print();
file.println("Anemometer_3 Werte:"); file.println("Anemometer_3 Werte:");
anemometer_3.file_print(); anemometer_3.file_print();
file.println("Temperatursensor_1 Werte:");
temp_sensor_1.file_print();
file.println("Windfahne_1 Werte:");
wind_vain_1.file_print();
file.close(); file.close();
Serial.println("Ende des Schreibvorgangs"); Serial.println("Ende des Schreibvorgangs");
} }
digitalWrite(LED_Write, LOW);
} }
void every_second() { void every_second() {
anemometer_1.save_wind_speed(); anemometer_1.save_wind_speed();
anemometer_2.save_wind_speed(); anemometer_2.save_wind_speed();
anemometer_3.save_wind_speed(); anemometer_3.save_wind_speed();
wind_vain_1.measure();
if (digitalRead(taster_manuell_speichern) == HIGH){
write_sd();
}
digitalWrite(LED_Normal, LOW);
seconds_for_blink++;
if (seconds_for_blink % 10 == 0) {
digitalWrite(LED_Normal, HIGH);
}
last_second = second(); last_second = second();
} }
void every_minute() { void every_minute() {
anemometer_1.calculate(); anemometer_1.calculate();
anemometer_2.calculate(); anemometer_2.calculate();
anemometer_3.calculate(); anemometer_3.calculate();
wind_vain_1.calculate();
if((analogRead(Batterie_input) * 15.3 / float(1023)) < Grenz_U_Batterie) {
digitalWrite(LED_Batterie, HIGH);
}
last_minute = minute(); last_minute = minute();
} }
@ -269,7 +337,7 @@ void setup()
anemometer_1.setup(2); anemometer_1.setup(2);
anemometer_2.setup(9); anemometer_2.setup(9);
anemometer_3.setup(22); anemometer_3.setup(22);
seconds_for_blink = 0;
Serial.println("Messung startet"); Serial.println("Messung startet");
last_second = second(); last_second = second();
@ -296,4 +364,4 @@ void loop()
} }
} }
} }
} }