Pololu
Project #29 – DFRobot – AltIMU-10 – Mk19
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#DonLucElectronics #DonLuc #DFRobot #AltIMU10 #9DOF #GPS #FireBeetle2ESP32E #EEPROM #RTC #SD #Display #Pololu #ESP32 #IoT #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
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Pololu AltIMU-10 v5 Gyro, Accelerometer, Compass, and Altimeter
The Pololu AltIMU-10 v5 is a compact board that combines ST’s LSM6DS33 3-axis gyroscope and 3-axis accelerometer, LIS3MDL 3-axis magnetometer, and LPS25H digital barometer to form an inertial measurement unit (IMU) and altimeter. These sensors are great ICs, but their small packages make them difficult for the typical student or hobbyist to use. They also operate at voltages below 3.6 Volt, which can make interfacing difficult for microcontrollers operating at 5 Volt. The AltIMU-10 v5 addresses these issues by incorporating additional electronics, including a voltage regulator and a level-shifting circuit, while keeping the overall size as compact as possible. The board ships fully populated with its SMD components, including the LSM6DS33, LIS3MDL, and LPS25H.
Attitude and Heading Reference System (AHRS)
An attitude and heading reference system (AHRS) uses an inertial measurement unit (IMU) consisting of microelectromechanical system (MEMS) inertial sensors to measure the angular rate, acceleration, and Earth’s magnetic field. These measurements can then be used to derive an estimate of the object’s attitude. An AHRS typically includes a 3-axis gyroscope, a 3-axis accelerometer, and a 3-axis magnetometer to determine an estimate of a system’s orientation. Each of these sensors contribute different measurements to the combined system and each exhibit unique limitations.
DL2406Mk06
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Pololu AltIMU-10 v5
1 x GPS Receiver – GP-20U7
2 x Switch
1 x 1K Ohm
1 x 1 x Lithium Ion Battery – 1000mAh
1 x Green LED
1 x USB 3.1 Cable A to C
DFRobot FireBeetle 2 ESP32-E
LED – 2
DSCK – 4
DMOSI – 16
DSS – 17
SCK – 22
MOSI – 23
MISO – 19
CS – 13
GPR – 26
GPT – 25
SCL – 21
SDA – 22
LED – 14
SWI – 3
XAC – A0
YAC – A1
ZAC – A2
VIN – +3.3V
GND – GND
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DL2406Mk06p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #29 - DFRobot - AltIMU-10 - Mk19
29-19
DL2406Mk06p.ino
DL2406Mk06
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Pololu AltIMU-10 v5
1 x GPS Receiver - GP-20U7
2 x Switch
1 x 1K Ohm
1 x 1 x Lithium Ion Battery - 1000mAh
1 x Green LED
1 x USB 3.1 Cable A to C
*/
// Include the Library Code
// EEPROM Library to Read and Write EEPROM
// with Unique ID for Unit
#include "EEPROM.h"
// Wire
#include <Wire.h>
// SD Card
#include "FS.h"
#include "SD.h"
#include "SPI.h"
// SHARP Memory Display
#include <Adafruit_SharpMem.h>
#include <Adafruit_GFX.h>
// GPS Receiver
#include <TinyGPS++.h>
// ESP32 Hardware Serial
#include <HardwareSerial.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// STMicroelectronics LPS25H digital Barometer
#include <LPS.h>
// Earth's magnetic field varies by location. Add or subtract
// a declination to get a more accurate heading. Calculate
// your's here: http://www.ngdc.noaa.gov/geomag-web/#declination
// Declination (degrees) in Mexicali
#define DECLINATION 10.31
// 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
//String FullStringB = "";
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// STMicroelectronics LPS25H digital barometer
LPS ps;
// Digital Barometer
float pressure;
float altitude;
float temperature;
// Attitude Calculate Pitch, Roll, and Headind
float r;
float p;
float h;
// ESP32 HardwareSerial
HardwareSerial tGPS(2);
// GPS Receiver
#define gpsRXPIN 26
// This one is unused and doesnt have a conection
#define gpsTXPIN 25
// The TinyGPS++ object
TinyGPSPlus gps;
// Latitude
float TargetLat;
// Longitude
float TargetLon;
// GPS Date, Time, Speed, Altitude
// GPS Date
String TargetDat;
// GPS Time
String TargetTim;
// GPS Speeds M/S
String TargetSMS;
// GPS Speeds Km/h
String TargetSKH;
// GPS Altitude Meters
String TargetALT;
// GPS Status
String GPSSt = "";
// MicroSD Card
const int chipSelect = 13;
String zzzzzz = "";
// SHARP Memory Display
#define SHARP_SCK 4
#define SHARP_MOSI 16
#define SHARP_SS 17
// Set the size of the display here, e.g. 144x168!
Adafruit_SharpMem display(SHARP_SCK, SHARP_MOSI, SHARP_SS, 144, 168);
// The currently-available SHARP Memory Display (144x168 pixels)
// requires > 4K of microcontroller RAM; it WILL NOT WORK on Arduino Uno
// or other <4K "classic" devices.
#define BLACK 0
#define WHITE 1
// LED Green
int iLEDGreen = 2;
// Define LED
int iLED = 14;
// Switch
int iSwitch = 3;
// Variable for reading the Switch status
int iSwitchState = 0;
// EEPROM Unique ID Information
#define EEPROM_SIZE 64
String uid = "";
// Software Version Information
String sver = "29-19";
void loop() {
// Accelerometer and Gyroscopes
isIMU();
// Magnetometer
isMag();
// Barometer
isBarometer();
// Attitude Calculate Pitch, Roll, and Heading
isAttitude(imuAX, imuAY, imuAZ, -imuGY, -imuGX, imuGZ);
// isGPS
isGPS();
// Read the state of the Switch value
iSwitchState = digitalRead(iSwitch);
// The Switch is HIGH:
if (iSwitchState == HIGH) {
// Attitude Calculate Pitch, Roll, and Heading and Barometer
isDisplayAttitude();
} else {
// Display GPS
isDisplayGPS();
}
// MicroSD Card
isSD();
// iLED HIGH
digitalWrite(iLED, HIGH );
// Delay 5 Second
delay(5000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #29 - DFRobot - AltIMU-10 - Mk19
29-19
DL2406Mk06p.ino
DL2406Mk06
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Pololu AltIMU-10 v5
1 x GPS Receiver - GP-20U7
2 x Switch
1 x 1K Ohm
1 x 1 x Lithium Ion Battery - 1000mAh
1 x Green LED
1 x USB 3.1 Cable A to C
*/
// Include the Library Code
// EEPROM Library to Read and Write EEPROM
// with Unique ID for Unit
#include "EEPROM.h"
// Wire
#include <Wire.h>
// SD Card
#include "FS.h"
#include "SD.h"
#include "SPI.h"
// SHARP Memory Display
#include <Adafruit_SharpMem.h>
#include <Adafruit_GFX.h>
// GPS Receiver
#include <TinyGPS++.h>
// ESP32 Hardware Serial
#include <HardwareSerial.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// STMicroelectronics LPS25H digital Barometer
#include <LPS.h>
// Earth's magnetic field varies by location. Add or subtract
// a declination to get a more accurate heading. Calculate
// your's here: http://www.ngdc.noaa.gov/geomag-web/#declination
// Declination (degrees) in Mexicali
#define DECLINATION 10.31
// 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
//String FullStringB = "";
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// STMicroelectronics LPS25H digital barometer
LPS ps;
// Digital Barometer
float pressure;
float altitude;
float temperature;
// Attitude Calculate Pitch, Roll, and Headind
float r;
float p;
float h;
// ESP32 HardwareSerial
HardwareSerial tGPS(2);
// GPS Receiver
#define gpsRXPIN 26
// This one is unused and doesnt have a conection
#define gpsTXPIN 25
// The TinyGPS++ object
TinyGPSPlus gps;
// Latitude
float TargetLat;
// Longitude
float TargetLon;
// GPS Date, Time, Speed, Altitude
// GPS Date
String TargetDat;
// GPS Time
String TargetTim;
// GPS Speeds M/S
String TargetSMS;
// GPS Speeds Km/h
String TargetSKH;
// GPS Altitude Meters
String TargetALT;
// GPS Status
String GPSSt = "";
// MicroSD Card
const int chipSelect = 13;
String zzzzzz = "";
// SHARP Memory Display
#define SHARP_SCK 4
#define SHARP_MOSI 16
#define SHARP_SS 17
// Set the size of the display here, e.g. 144x168!
Adafruit_SharpMem display(SHARP_SCK, SHARP_MOSI, SHARP_SS, 144, 168);
// The currently-available SHARP Memory Display (144x168 pixels)
// requires > 4K of microcontroller RAM; it WILL NOT WORK on Arduino Uno
// or other <4K "classic" devices.
#define BLACK 0
#define WHITE 1
// LED Green
int iLEDGreen = 2;
// Define LED
int iLED = 14;
// Switch
int iSwitch = 3;
// Variable for reading the Switch status
int iSwitchState = 0;
// EEPROM Unique ID Information
#define EEPROM_SIZE 64
String uid = "";
// Software Version Information
String sver = "29-19";
void loop() {
// Accelerometer and Gyroscopes
isIMU();
// Magnetometer
isMag();
// Barometer
isBarometer();
// Attitude Calculate Pitch, Roll, and Heading
isAttitude(imuAX, imuAY, imuAZ, -imuGY, -imuGX, imuGZ);
// isGPS
isGPS();
// Read the state of the Switch value
iSwitchState = digitalRead(iSwitch);
// The Switch is HIGH:
if (iSwitchState == HIGH) {
// Attitude Calculate Pitch, Roll, and Heading and Barometer
isDisplayAttitude();
} else {
// Display GPS
isDisplayGPS();
}
// MicroSD Card
isSD();
// iLED HIGH
digitalWrite(iLED, HIGH );
// Delay 5 Second
delay(5000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #29 - DFRobot - AltIMU-10 - Mk19
29-19
DL2406Mk06p.ino
DL2406Mk06
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Pololu AltIMU-10 v5
1 x GPS Receiver - GP-20U7
2 x Switch
1 x 1K Ohm
1 x 1 x Lithium Ion Battery - 1000mAh
1 x Green LED
1 x USB 3.1 Cable A to C
*/
// Include the Library Code
// EEPROM Library to Read and Write EEPROM
// with Unique ID for Unit
#include "EEPROM.h"
// Wire
#include <Wire.h>
// SD Card
#include "FS.h"
#include "SD.h"
#include "SPI.h"
// SHARP Memory Display
#include <Adafruit_SharpMem.h>
#include <Adafruit_GFX.h>
// GPS Receiver
#include <TinyGPS++.h>
// ESP32 Hardware Serial
#include <HardwareSerial.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// STMicroelectronics LPS25H digital Barometer
#include <LPS.h>
// Earth's magnetic field varies by location. Add or subtract
// a declination to get a more accurate heading. Calculate
// your's here: http://www.ngdc.noaa.gov/geomag-web/#declination
// Declination (degrees) in Mexicali
#define DECLINATION 10.31
// 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
//String FullStringB = "";
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// STMicroelectronics LPS25H digital barometer
LPS ps;
// Digital Barometer
float pressure;
float altitude;
float temperature;
// Attitude Calculate Pitch, Roll, and Headind
float r;
float p;
float h;
// ESP32 HardwareSerial
HardwareSerial tGPS(2);
// GPS Receiver
#define gpsRXPIN 26
// This one is unused and doesnt have a conection
#define gpsTXPIN 25
// The TinyGPS++ object
TinyGPSPlus gps;
// Latitude
float TargetLat;
// Longitude
float TargetLon;
// GPS Date, Time, Speed, Altitude
// GPS Date
String TargetDat;
// GPS Time
String TargetTim;
// GPS Speeds M/S
String TargetSMS;
// GPS Speeds Km/h
String TargetSKH;
// GPS Altitude Meters
String TargetALT;
// GPS Status
String GPSSt = "";
// MicroSD Card
const int chipSelect = 13;
String zzzzzz = "";
// SHARP Memory Display
#define SHARP_SCK 4
#define SHARP_MOSI 16
#define SHARP_SS 17
// Set the size of the display here, e.g. 144x168!
Adafruit_SharpMem display(SHARP_SCK, SHARP_MOSI, SHARP_SS, 144, 168);
// The currently-available SHARP Memory Display (144x168 pixels)
// requires > 4K of microcontroller RAM; it WILL NOT WORK on Arduino Uno
// or other <4K "classic" devices.
#define BLACK 0
#define WHITE 1
// LED Green
int iLEDGreen = 2;
// Define LED
int iLED = 14;
// Switch
int iSwitch = 3;
// Variable for reading the Switch status
int iSwitchState = 0;
// EEPROM Unique ID Information
#define EEPROM_SIZE 64
String uid = "";
// Software Version Information
String sver = "29-19";
void loop() {
// Accelerometer and Gyroscopes
isIMU();
// Magnetometer
isMag();
// Barometer
isBarometer();
// Attitude Calculate Pitch, Roll, and Heading
isAttitude(imuAX, imuAY, imuAZ, -imuGY, -imuGX, imuGZ);
// isGPS
isGPS();
// Read the state of the Switch value
iSwitchState = digitalRead(iSwitch);
// The Switch is HIGH:
if (iSwitchState == HIGH) {
// Attitude Calculate Pitch, Roll, and Heading and Barometer
isDisplayAttitude();
} else {
// Display GPS
isDisplayGPS();
}
// MicroSD Card
isSD();
// iLED HIGH
digitalWrite(iLED, HIGH );
// Delay 5 Second
delay(5000);
}
getAccelGyro.ino
// Accelerometer and Gyroscopes
// Setup IMU
void isSetupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
}
// Accelerometer and Gyroscopes
// Setup IMU
void isSetupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
}
// Accelerometer and Gyroscopes
// Setup IMU
void isSetupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
}
getAttitude.ino
// Attitude Calculate Pitch, Roll, and Heading
void isAttitude(float ax, float ay, float az, float mx, float my, float mz) {
// Attitude Calculate Pitch, Roll, and Heading
float roll = atan2(ay, az);
float pitch = atan2(-ax, sqrt(ay * ay + az * az));
float heading;
if (my == 0)
heading = (mx < 0) ? PI : 0;
else
heading = atan2(mx, my);
heading -= DECLINATION * PI / 180;
if (heading > PI) heading -= (2 * PI);
else if (heading < -PI) heading += (2 * PI);
// Convert everything from radians to degrees:
heading *= 180.0 / PI;
pitch *= 180.0 / PI;
roll *= 180.0 / PI;
h = heading;
p = pitch;
r = roll;
}
// Attitude Calculate Pitch, Roll, and Heading
void isAttitude(float ax, float ay, float az, float mx, float my, float mz) {
// Attitude Calculate Pitch, Roll, and Heading
float roll = atan2(ay, az);
float pitch = atan2(-ax, sqrt(ay * ay + az * az));
float heading;
if (my == 0)
heading = (mx < 0) ? PI : 0;
else
heading = atan2(mx, my);
heading -= DECLINATION * PI / 180;
if (heading > PI) heading -= (2 * PI);
else if (heading < -PI) heading += (2 * PI);
// Convert everything from radians to degrees:
heading *= 180.0 / PI;
pitch *= 180.0 / PI;
roll *= 180.0 / PI;
h = heading;
p = pitch;
r = roll;
}
// Attitude Calculate Pitch, Roll, and Heading
void isAttitude(float ax, float ay, float az, float mx, float my, float mz) {
// Attitude Calculate Pitch, Roll, and Heading
float roll = atan2(ay, az);
float pitch = atan2(-ax, sqrt(ay * ay + az * az));
float heading;
if (my == 0)
heading = (mx < 0) ? PI : 0;
else
heading = atan2(mx, my);
heading -= DECLINATION * PI / 180;
if (heading > PI) heading -= (2 * PI);
else if (heading < -PI) heading += (2 * PI);
// Convert everything from radians to degrees:
heading *= 180.0 / PI;
pitch *= 180.0 / PI;
roll *= 180.0 / PI;
h = heading;
p = pitch;
r = roll;
}
getBarometer.ino
// STMicroelectronics LPS25H digital barometer
// Setup Barometer
void isSetupBarometer(){
// Setup Barometer
ps.init();
// Default
ps.enableDefault();
}
// Barometer
void isBarometer(){
// Barometer
pressure = ps.readPressureMillibars();
// Altitude Meters
altitude = ps.pressureToAltitudeMeters(pressure);
// Temperature Celsius
temperature = ps.readTemperatureC();
}
// STMicroelectronics LPS25H digital barometer
// Setup Barometer
void isSetupBarometer(){
// Setup Barometer
ps.init();
// Default
ps.enableDefault();
}
// Barometer
void isBarometer(){
// Barometer
pressure = ps.readPressureMillibars();
// Altitude Meters
altitude = ps.pressureToAltitudeMeters(pressure);
// Temperature Celsius
temperature = ps.readTemperatureC();
}
// STMicroelectronics LPS25H digital barometer
// Setup Barometer
void isSetupBarometer(){
// Setup Barometer
ps.init();
// Default
ps.enableDefault();
}
// Barometer
void isBarometer(){
// Barometer
pressure = ps.readPressureMillibars();
// Altitude Meters
altitude = ps.pressureToAltitudeMeters(pressure);
// Temperature Celsius
temperature = ps.readTemperatureC();
}
getDisplay.ino
// SHARP Memory Display
// SHARP Memory Display - UID
void isDisplayUID() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(3);
display.setTextColor(BLACK);
// Don Luc Electronics
display.setCursor(0,10);
display.println( "Don Luc" );
display.setTextSize(2);
display.setCursor(0,40);
display.println( "Electronics" );
// Version
//display.setTextSize(3);
display.setCursor(0,70);
display.println( "Version" );
//display.setTextSize(2);
display.setCursor(0,95);
display.println( sver );
// EEPROM
display.setCursor(0,120);
display.println( "EEPROM" );
display.setCursor(0,140);
display.println( uid );
// Refresh
display.refresh();
delay( 100 );
}
// Attitude Calculate Pitch, Roll, and Heading
void isDisplayAttitude() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Pitch
display.setCursor(0,5);
display.print( "Pi: " );
display.println( p );
// Roll
display.setCursor(0,25);
display.print( "Ro: " );
display.println( r );
// Heading
display.setCursor(0,45);
display.print( "He: " );
display.println( h );
// Temperature Celsius
display.setCursor(0,65);
display.print( "Te: " );
display.println( temperature );
// Barometer
display.setCursor(0,85);
display.print( "Ba: " );
display.println( pressure );
// Altitude Meters
display.setCursor(0,105);
display.print( "Al: " );
display.println( altitude );
// Refresh
display.refresh();
delay( 100 );
}
// Display GPS
void isDisplayGPS() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Latitude
display.setCursor(0,5);
display.print( "Lat: " );
display.println( TargetLat );
// Longitude
display.setCursor(0,30);
display.print( "Lon: " );
display.println( TargetLon );
// GPS Date
display.setCursor(0,55);
display.println( TargetDat );
// GPS Time
display.setCursor(0,80);
display.println( TargetTim );
// GPS Speed M/S
display.setCursor(0,105);
display.print( TargetSMS );
display.println( " M/S" );
// GPS Altitude Meters
display.setCursor(0,130);
display.print( TargetALT );
display.println( " M" );
// Refresh
display.refresh();
delay( 100 );
}
// SHARP Memory Display
// SHARP Memory Display - UID
void isDisplayUID() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(3);
display.setTextColor(BLACK);
// Don Luc Electronics
display.setCursor(0,10);
display.println( "Don Luc" );
display.setTextSize(2);
display.setCursor(0,40);
display.println( "Electronics" );
// Version
//display.setTextSize(3);
display.setCursor(0,70);
display.println( "Version" );
//display.setTextSize(2);
display.setCursor(0,95);
display.println( sver );
// EEPROM
display.setCursor(0,120);
display.println( "EEPROM" );
display.setCursor(0,140);
display.println( uid );
// Refresh
display.refresh();
delay( 100 );
}
// Attitude Calculate Pitch, Roll, and Heading
void isDisplayAttitude() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Pitch
display.setCursor(0,5);
display.print( "Pi: " );
display.println( p );
// Roll
display.setCursor(0,25);
display.print( "Ro: " );
display.println( r );
// Heading
display.setCursor(0,45);
display.print( "He: " );
display.println( h );
// Temperature Celsius
display.setCursor(0,65);
display.print( "Te: " );
display.println( temperature );
// Barometer
display.setCursor(0,85);
display.print( "Ba: " );
display.println( pressure );
// Altitude Meters
display.setCursor(0,105);
display.print( "Al: " );
display.println( altitude );
// Refresh
display.refresh();
delay( 100 );
}
// Display GPS
void isDisplayGPS() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Latitude
display.setCursor(0,5);
display.print( "Lat: " );
display.println( TargetLat );
// Longitude
display.setCursor(0,30);
display.print( "Lon: " );
display.println( TargetLon );
// GPS Date
display.setCursor(0,55);
display.println( TargetDat );
// GPS Time
display.setCursor(0,80);
display.println( TargetTim );
// GPS Speed M/S
display.setCursor(0,105);
display.print( TargetSMS );
display.println( " M/S" );
// GPS Altitude Meters
display.setCursor(0,130);
display.print( TargetALT );
display.println( " M" );
// Refresh
display.refresh();
delay( 100 );
}
// SHARP Memory Display
// SHARP Memory Display - UID
void isDisplayUID() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(3);
display.setTextColor(BLACK);
// Don Luc Electronics
display.setCursor(0,10);
display.println( "Don Luc" );
display.setTextSize(2);
display.setCursor(0,40);
display.println( "Electronics" );
// Version
//display.setTextSize(3);
display.setCursor(0,70);
display.println( "Version" );
//display.setTextSize(2);
display.setCursor(0,95);
display.println( sver );
// EEPROM
display.setCursor(0,120);
display.println( "EEPROM" );
display.setCursor(0,140);
display.println( uid );
// Refresh
display.refresh();
delay( 100 );
}
// Attitude Calculate Pitch, Roll, and Heading
void isDisplayAttitude() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Pitch
display.setCursor(0,5);
display.print( "Pi: " );
display.println( p );
// Roll
display.setCursor(0,25);
display.print( "Ro: " );
display.println( r );
// Heading
display.setCursor(0,45);
display.print( "He: " );
display.println( h );
// Temperature Celsius
display.setCursor(0,65);
display.print( "Te: " );
display.println( temperature );
// Barometer
display.setCursor(0,85);
display.print( "Ba: " );
display.println( pressure );
// Altitude Meters
display.setCursor(0,105);
display.print( "Al: " );
display.println( altitude );
// Refresh
display.refresh();
delay( 100 );
}
// Display GPS
void isDisplayGPS() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Latitude
display.setCursor(0,5);
display.print( "Lat: " );
display.println( TargetLat );
// Longitude
display.setCursor(0,30);
display.print( "Lon: " );
display.println( TargetLon );
// GPS Date
display.setCursor(0,55);
display.println( TargetDat );
// GPS Time
display.setCursor(0,80);
display.println( TargetTim );
// GPS Speed M/S
display.setCursor(0,105);
display.print( TargetSMS );
display.println( " M/S" );
// GPS Altitude Meters
display.setCursor(0,130);
display.print( TargetALT );
display.println( " M" );
// Refresh
display.refresh();
delay( 100 );
}
getEEPROM.ino
// EEPROM
// isUID EEPROM Unique ID
void isUID() {
// Is Unit ID
uid = "";
for (int x = 0; x < 7; x++)
{
uid = uid + char(EEPROM.read(x));
}
}
// EEPROM
// isUID EEPROM Unique ID
void isUID() {
// Is Unit ID
uid = "";
for (int x = 0; x < 7; x++)
{
uid = uid + char(EEPROM.read(x));
}
}
// EEPROM
// isUID EEPROM Unique ID
void isUID() {
// Is Unit ID
uid = "";
for (int x = 0; x < 7; x++)
{
uid = uid + char(EEPROM.read(x));
}
}
getGPS.ino
// GPS Receiver
// Setup GPS
void isSetupGPS() {
// Setup GPS
tGPS.begin( 9600 , SERIAL_8N1 , gpsRXPIN , gpsTXPIN );
}
// isGPS
void isGPS(){
// Receives NEMA data from GPS receiver
// This sketch displays information every time a new sentence is correctly encoded
while ( tGPS.available() > 0)
if (gps.encode( tGPS.read() ))
{
// GPS Vector Pointer Target
displayInfo();
// GPS Date, Time, Speed, Altitude
displayDTS();
}
if (millis() > 5000 && gps.charsProcessed() < 10)
{
while(true);
}
}
// GPS Vector Pointer Target
void displayInfo(){
// Location
if (gps.location.isValid())
{
// Latitude
TargetLat = gps.location.lat();
// Longitude
TargetLon = gps.location.lng();
// GPS Status 2
GPSSt = "Yes";
}
else
{
// GPS Status 0
GPSSt = "No";
}
}
// GPS Date, Time, Speed, Altitude
void displayDTS(){
// Date
TargetDat = "";
if (gps.date.isValid())
{
// Date
// Year
TargetDat += String(gps.date.year(), DEC);
TargetDat += "/";
// Month
TargetDat += String(gps.date.month(), DEC);
TargetDat += "/";
// Day
TargetDat += String(gps.date.day(), DEC);
}
// Time
TargetTim = "";
if (gps.time.isValid())
{
// Time
// Hour
TargetTim += String(gps.time.hour(), DEC);
TargetTim += ":";
// Minute
TargetTim += String(gps.time.minute(), DEC);
TargetTim += ":";
// Secound
TargetTim += String(gps.time.second(), DEC);
}
// Speed
TargetSMS = "";
TargetSKH = "";
if (gps.speed.isValid())
{
// Speed
// M/S
int x = gps.speed.mps();
TargetSMS = String( x, DEC);
// Km/h
int y = gps.speed.kmph();
TargetSKH = String( y, DEC);
}
// Altitude
TargetALT = "";
if (gps.altitude.isValid())
{
// Altitude
// Meters
int z = gps.altitude.meters();
TargetALT = String( z, DEC);
}
}
// GPS Receiver
// Setup GPS
void isSetupGPS() {
// Setup GPS
tGPS.begin( 9600 , SERIAL_8N1 , gpsRXPIN , gpsTXPIN );
}
// isGPS
void isGPS(){
// Receives NEMA data from GPS receiver
// This sketch displays information every time a new sentence is correctly encoded
while ( tGPS.available() > 0)
if (gps.encode( tGPS.read() ))
{
// GPS Vector Pointer Target
displayInfo();
// GPS Date, Time, Speed, Altitude
displayDTS();
}
if (millis() > 5000 && gps.charsProcessed() < 10)
{
while(true);
}
}
// GPS Vector Pointer Target
void displayInfo(){
// Location
if (gps.location.isValid())
{
// Latitude
TargetLat = gps.location.lat();
// Longitude
TargetLon = gps.location.lng();
// GPS Status 2
GPSSt = "Yes";
}
else
{
// GPS Status 0
GPSSt = "No";
}
}
// GPS Date, Time, Speed, Altitude
void displayDTS(){
// Date
TargetDat = "";
if (gps.date.isValid())
{
// Date
// Year
TargetDat += String(gps.date.year(), DEC);
TargetDat += "/";
// Month
TargetDat += String(gps.date.month(), DEC);
TargetDat += "/";
// Day
TargetDat += String(gps.date.day(), DEC);
}
// Time
TargetTim = "";
if (gps.time.isValid())
{
// Time
// Hour
TargetTim += String(gps.time.hour(), DEC);
TargetTim += ":";
// Minute
TargetTim += String(gps.time.minute(), DEC);
TargetTim += ":";
// Secound
TargetTim += String(gps.time.second(), DEC);
}
// Speed
TargetSMS = "";
TargetSKH = "";
if (gps.speed.isValid())
{
// Speed
// M/S
int x = gps.speed.mps();
TargetSMS = String( x, DEC);
// Km/h
int y = gps.speed.kmph();
TargetSKH = String( y, DEC);
}
// Altitude
TargetALT = "";
if (gps.altitude.isValid())
{
// Altitude
// Meters
int z = gps.altitude.meters();
TargetALT = String( z, DEC);
}
}
// GPS Receiver
// Setup GPS
void isSetupGPS() {
// Setup GPS
tGPS.begin( 9600 , SERIAL_8N1 , gpsRXPIN , gpsTXPIN );
}
// isGPS
void isGPS(){
// Receives NEMA data from GPS receiver
// This sketch displays information every time a new sentence is correctly encoded
while ( tGPS.available() > 0)
if (gps.encode( tGPS.read() ))
{
// GPS Vector Pointer Target
displayInfo();
// GPS Date, Time, Speed, Altitude
displayDTS();
}
if (millis() > 5000 && gps.charsProcessed() < 10)
{
while(true);
}
}
// GPS Vector Pointer Target
void displayInfo(){
// Location
if (gps.location.isValid())
{
// Latitude
TargetLat = gps.location.lat();
// Longitude
TargetLon = gps.location.lng();
// GPS Status 2
GPSSt = "Yes";
}
else
{
// GPS Status 0
GPSSt = "No";
}
}
// GPS Date, Time, Speed, Altitude
void displayDTS(){
// Date
TargetDat = "";
if (gps.date.isValid())
{
// Date
// Year
TargetDat += String(gps.date.year(), DEC);
TargetDat += "/";
// Month
TargetDat += String(gps.date.month(), DEC);
TargetDat += "/";
// Day
TargetDat += String(gps.date.day(), DEC);
}
// Time
TargetTim = "";
if (gps.time.isValid())
{
// Time
// Hour
TargetTim += String(gps.time.hour(), DEC);
TargetTim += ":";
// Minute
TargetTim += String(gps.time.minute(), DEC);
TargetTim += ":";
// Secound
TargetTim += String(gps.time.second(), DEC);
}
// Speed
TargetSMS = "";
TargetSKH = "";
if (gps.speed.isValid())
{
// Speed
// M/S
int x = gps.speed.mps();
TargetSMS = String( x, DEC);
// Km/h
int y = gps.speed.kmph();
TargetSKH = String( y, DEC);
}
// Altitude
TargetALT = "";
if (gps.altitude.isValid())
{
// Altitude
// Meters
int z = gps.altitude.meters();
TargetALT = String( z, DEC);
}
}
getMagnetometer.ino
// Magnetometer
// Setup Magnetometer
void isSetupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
}
// Magnetometer
// Setup Magnetometer
void isSetupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
}
// Magnetometer
// Setup Magnetometer
void isSetupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
}
getSD.ino
// MicroSD Card
// MicroSD Setup
void isSetupSD() {
// MicroSD Card
pinMode( chipSelect , OUTPUT );
if(!SD.begin( chipSelect )){
;
return;
}
uint8_t cardType = SD.cardType();
// CARD NONE
if(cardType == CARD_NONE){
;
return;
}
// SD Card Type
if(cardType == CARD_MMC){
;
} else if(cardType == CARD_SD){
;
} else if(cardType == CARD_SDHC){
;
} else {
;
}
// Size
uint64_t cardSize = SD.cardSize() / (1024 * 1024);
}
// MicroSD Card
void isSD() {
zzzzzz = "";
//DFR|EEPROM Unique ID|Version|
//Accelerometer X|Accelerometer Y|Accelerometer Z|
//Gyroscope X|Gyroscope Y|Gyroscope Z|
//Magnetometer X|Magnetometer Y|Magnetometer Z|
//Pitch|Roll|Heading|
//Temperature C|Pressure Millibars|Altitude Meters|
//GPS|Latitude|Longitude|GPS Date|GPS Time|GPS Speed M/S|GPS Altitude|*\r
zzzzzz = "DFR|" + uid + "|" + sver + "|"
+ String(imuAX) + "|" + String(imuAY) + "|" + String(imuAZ) + "|"
+ String(imuGX) + "|" + String(imuGY) + "|" + String(imuGZ) + "|"
+ String(magX) + "|" + String(magY) + "|" + String(magZ) + "|"
+ String(p) + "|" + String(r) + "|" + String(h) + "|"
+ String(temperature) + "|" + String(pressure) + "|" + String(altitude) + "|"
+ String(GPSSt) + "|" + String(TargetLat) + "|"
+ String(TargetLon) + "|" + String(TargetDat) + "|" + String(TargetTim) + "|"
+ String(TargetSMS) + "|" + String(TargetALT)+ "|*\r";
// msg + 1
char msg[zzzzzz.length() + 1];
zzzzzz.toCharArray(msg, zzzzzz.length() + 1);
// Append File
appendFile(SD, "/dfrdata.txt", msg );
}
// List Dir
void listDir(fs::FS &fs, const char * dirname, uint8_t levels){
// List Dir
dirname;
File root = fs.open(dirname);
if(!root){
return;
}
if(!root.isDirectory()){
return;
}
File file = root.openNextFile();
while(file){
if(file.isDirectory()){
file.name();
if(levels){
listDir(fs, file.name(), levels -1);
}
} else {
file.name();
file.size();
}
file = root.openNextFile();
}
}
// Write File
void writeFile(fs::FS &fs, const char * path, const char * message){
// Write File
path;
File file = fs.open(path, FILE_WRITE);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// Append File
void appendFile(fs::FS &fs, const char * path, const char * message){
// Append File
path;
File file = fs.open(path, FILE_APPEND);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// MicroSD Card
// MicroSD Setup
void isSetupSD() {
// MicroSD Card
pinMode( chipSelect , OUTPUT );
if(!SD.begin( chipSelect )){
;
return;
}
uint8_t cardType = SD.cardType();
// CARD NONE
if(cardType == CARD_NONE){
;
return;
}
// SD Card Type
if(cardType == CARD_MMC){
;
} else if(cardType == CARD_SD){
;
} else if(cardType == CARD_SDHC){
;
} else {
;
}
// Size
uint64_t cardSize = SD.cardSize() / (1024 * 1024);
}
// MicroSD Card
void isSD() {
zzzzzz = "";
//DFR|EEPROM Unique ID|Version|
//Accelerometer X|Accelerometer Y|Accelerometer Z|
//Gyroscope X|Gyroscope Y|Gyroscope Z|
//Magnetometer X|Magnetometer Y|Magnetometer Z|
//Pitch|Roll|Heading|
//Temperature C|Pressure Millibars|Altitude Meters|
//GPS|Latitude|Longitude|GPS Date|GPS Time|GPS Speed M/S|GPS Altitude|*\r
zzzzzz = "DFR|" + uid + "|" + sver + "|"
+ String(imuAX) + "|" + String(imuAY) + "|" + String(imuAZ) + "|"
+ String(imuGX) + "|" + String(imuGY) + "|" + String(imuGZ) + "|"
+ String(magX) + "|" + String(magY) + "|" + String(magZ) + "|"
+ String(p) + "|" + String(r) + "|" + String(h) + "|"
+ String(temperature) + "|" + String(pressure) + "|" + String(altitude) + "|"
+ String(GPSSt) + "|" + String(TargetLat) + "|"
+ String(TargetLon) + "|" + String(TargetDat) + "|" + String(TargetTim) + "|"
+ String(TargetSMS) + "|" + String(TargetALT)+ "|*\r";
// msg + 1
char msg[zzzzzz.length() + 1];
zzzzzz.toCharArray(msg, zzzzzz.length() + 1);
// Append File
appendFile(SD, "/dfrdata.txt", msg );
}
// List Dir
void listDir(fs::FS &fs, const char * dirname, uint8_t levels){
// List Dir
dirname;
File root = fs.open(dirname);
if(!root){
return;
}
if(!root.isDirectory()){
return;
}
File file = root.openNextFile();
while(file){
if(file.isDirectory()){
file.name();
if(levels){
listDir(fs, file.name(), levels -1);
}
} else {
file.name();
file.size();
}
file = root.openNextFile();
}
}
// Write File
void writeFile(fs::FS &fs, const char * path, const char * message){
// Write File
path;
File file = fs.open(path, FILE_WRITE);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// Append File
void appendFile(fs::FS &fs, const char * path, const char * message){
// Append File
path;
File file = fs.open(path, FILE_APPEND);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// MicroSD Card
// MicroSD Setup
void isSetupSD() {
// MicroSD Card
pinMode( chipSelect , OUTPUT );
if(!SD.begin( chipSelect )){
;
return;
}
uint8_t cardType = SD.cardType();
// CARD NONE
if(cardType == CARD_NONE){
;
return;
}
// SD Card Type
if(cardType == CARD_MMC){
;
} else if(cardType == CARD_SD){
;
} else if(cardType == CARD_SDHC){
;
} else {
;
}
// Size
uint64_t cardSize = SD.cardSize() / (1024 * 1024);
}
// MicroSD Card
void isSD() {
zzzzzz = "";
//DFR|EEPROM Unique ID|Version|
//Accelerometer X|Accelerometer Y|Accelerometer Z|
//Gyroscope X|Gyroscope Y|Gyroscope Z|
//Magnetometer X|Magnetometer Y|Magnetometer Z|
//Pitch|Roll|Heading|
//Temperature C|Pressure Millibars|Altitude Meters|
//GPS|Latitude|Longitude|GPS Date|GPS Time|GPS Speed M/S|GPS Altitude|*\r
zzzzzz = "DFR|" + uid + "|" + sver + "|"
+ String(imuAX) + "|" + String(imuAY) + "|" + String(imuAZ) + "|"
+ String(imuGX) + "|" + String(imuGY) + "|" + String(imuGZ) + "|"
+ String(magX) + "|" + String(magY) + "|" + String(magZ) + "|"
+ String(p) + "|" + String(r) + "|" + String(h) + "|"
+ String(temperature) + "|" + String(pressure) + "|" + String(altitude) + "|"
+ String(GPSSt) + "|" + String(TargetLat) + "|"
+ String(TargetLon) + "|" + String(TargetDat) + "|" + String(TargetTim) + "|"
+ String(TargetSMS) + "|" + String(TargetALT)+ "|*\r";
// msg + 1
char msg[zzzzzz.length() + 1];
zzzzzz.toCharArray(msg, zzzzzz.length() + 1);
// Append File
appendFile(SD, "/dfrdata.txt", msg );
}
// List Dir
void listDir(fs::FS &fs, const char * dirname, uint8_t levels){
// List Dir
dirname;
File root = fs.open(dirname);
if(!root){
return;
}
if(!root.isDirectory()){
return;
}
File file = root.openNextFile();
while(file){
if(file.isDirectory()){
file.name();
if(levels){
listDir(fs, file.name(), levels -1);
}
} else {
file.name();
file.size();
}
file = root.openNextFile();
}
}
// Write File
void writeFile(fs::FS &fs, const char * path, const char * message){
// Write File
path;
File file = fs.open(path, FILE_WRITE);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// Append File
void appendFile(fs::FS &fs, const char * path, const char * message){
// Append File
path;
File file = fs.open(path, FILE_APPEND);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// EEPROM Size
EEPROM.begin(EEPROM_SIZE);
// EEPROM Unique ID
isUID();
// Give display
delay(100);
// Set up I2C bus
Wire.begin();
// Give display
delay(100);
//MicroSD Card
isSetupSD();
// SHARP Display Start & Clear the Display
display.begin();
// Clear Display
display.clearDisplay();
// Delay
delay( 100 );
// GPS Receiver
// Setup GPS
isSetupGPS();
// Delay
delay( 100 );
// Setup IMU
isSetupIMU();
// Setup Magnetometer
isSetupMag();
// Setup Barometer
isSetupBarometer();
// Delay
delay( 100 );
// Initialize digital pin iLED as an output
pinMode(iLED, OUTPUT);
// Outputting high, the LED turns on
digitalWrite(iLED, HIGH);
// Initialize the LED Green
pinMode(iLEDGreen, OUTPUT);
// iLEDGreen HIGH
digitalWrite(iLEDGreen, HIGH );
// Initialize the Switch
pinMode(iSwitch, INPUT);
// Don Luc Electronics
// Version
// EEPROM
isDisplayUID();
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// EEPROM Size
EEPROM.begin(EEPROM_SIZE);
// EEPROM Unique ID
isUID();
// Give display
delay(100);
// Set up I2C bus
Wire.begin();
// Give display
delay(100);
//MicroSD Card
isSetupSD();
// SHARP Display Start & Clear the Display
display.begin();
// Clear Display
display.clearDisplay();
// Delay
delay( 100 );
// GPS Receiver
// Setup GPS
isSetupGPS();
// Delay
delay( 100 );
// Setup IMU
isSetupIMU();
// Setup Magnetometer
isSetupMag();
// Setup Barometer
isSetupBarometer();
// Delay
delay( 100 );
// Initialize digital pin iLED as an output
pinMode(iLED, OUTPUT);
// Outputting high, the LED turns on
digitalWrite(iLED, HIGH);
// Initialize the LED Green
pinMode(iLEDGreen, OUTPUT);
// iLEDGreen HIGH
digitalWrite(iLEDGreen, HIGH );
// Initialize the Switch
pinMode(iSwitch, INPUT);
// Don Luc Electronics
// Version
// EEPROM
isDisplayUID();
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// EEPROM Size
EEPROM.begin(EEPROM_SIZE);
// EEPROM Unique ID
isUID();
// Give display
delay(100);
// Set up I2C bus
Wire.begin();
// Give display
delay(100);
//MicroSD Card
isSetupSD();
// SHARP Display Start & Clear the Display
display.begin();
// Clear Display
display.clearDisplay();
// Delay
delay( 100 );
// GPS Receiver
// Setup GPS
isSetupGPS();
// Delay
delay( 100 );
// Setup IMU
isSetupIMU();
// Setup Magnetometer
isSetupMag();
// Setup Barometer
isSetupBarometer();
// Delay
delay( 100 );
// Initialize digital pin iLED as an output
pinMode(iLED, OUTPUT);
// Outputting high, the LED turns on
digitalWrite(iLED, HIGH);
// Initialize the LED Green
pinMode(iLEDGreen, OUTPUT);
// iLEDGreen HIGH
digitalWrite(iLEDGreen, HIGH );
// Initialize the Switch
pinMode(iSwitch, INPUT);
// Don Luc Electronics
// Version
// EEPROM
isDisplayUID();
// Delay 5 Second
delay( 5000 );
}
——
People can contact us: https://www.donluc.com/?page_id=1927
Teacher, Instructor, E-Mentor, R&D and Consulting
- Programming Language
- Single-Board Microcontrollers (PIC, Arduino, Raspberry Pi, Arm, Silicon Labs, Espressif, Etc…)
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Don Luc
Project #29 – DFRobot – RHT And MQ – Mk13
Video Player
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#DonLucElectronics #DonLuc #DFRobot #BLESensorBeacon #AmbientLight #SoilMoisture #SHT40 #FireBeetle2ESP32E #EEPROM #RTC #SD #Display #Adafruit #ESP32 #IoT #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
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Humidity and Temperature Sensor – RHT03
The RHT03 (also known by DHT-22) is a low cost humidity and temperature sensor with a single wire digital interface. The sensor is calibrated and doesn’t require extra components so you can get right to measuring relative humidity and temperature.
MQ Series Gas Sensor
The description of each MQ series gas sensor and its uses that follows will be helpful to anybody who wants to understand the foundations of gas sensing technology. The MQ Series Gas Sensor is a revolutionary technology designed for the detection of combustible gases, such as those used in industry and manufacturing. MQ sensor working principle involves detecting changes in electrical conductivity when specific gases come into contact with the sensor’s sensing element. This variety of semiconductor gas sensors makes it possible to measure concentrations of gasses such as alcohol, methane, propane, butane, and carbon monoxide.
Pololu Carrier for MQ Gas Sensors
This carrier board is designed to work with any of the MQ-series gas sensors, simplifying the interface from 6 to 3 pins—ground, power and analog voltage output +3-5 Volt. This board has two mounting holes and provides convenient pads for mounting the gas sensor’s required sensitivity-setting resistor.
DL2405Mk03
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Adafruit DS3231 Precision RTC FeatherWing – RTC
1 x Battery CR1220
4 x Pololu Carrier for MQ Gas Sensors
1 x SparkFun Hydrogen Gas Sensor – MQ-8
1 x 4.7K Ohm
1 x Pololu Carbon Monoxide & Flammable Gas Sensor – MQ-9
1 x 22k Ohm
1 x SparkFun Carbon Monoxide Gas Sensor – MQ-7
1 x 10K Ohm
1 x SparkFun Alcohol Gas Sensor – MQ-3
1 x 220k Ohm
1 x Temperature and Humidity Sensor – RHT03
1 x PIR Motion Sensor (JST)
1 x Switch
1 x 1K Ohm
1 x Gravity: Analog Soil Moisture Sensor
1 x Gravity: Analog Ambient Light Sensor
1 x Fermion: SHT40 Temperature & Humidity Sensor
3 x Fermion: BLE Sensor Beacon
3 x CR2032 Coin Cell Battery
1 x 1 x Lithium Ion Battery – 1000mAh
1 x Green LED
1 x Slide Switch
1 x SparkFun Serial Basic Breakout – CH340G
1 x SparkFun Cerberus USB Cable
1 x USB 3.1 Cable A to C
DFRobot FireBeetle 2 ESP32-E
LED – 2
DSCK – 4
DMOSI – 16
DSS – 17
SCK – 22
MOSI – 23
MISO – 19
CS – 13
SCL – 21
SDA – 22
LED – 14
RHT – 25
PIR – 26
SWI – 3
MQ8 = A0
MQ9 = A1
MQ7 = A2
MQ3 = A3
VIN – +3.3V
GND – GND
——
DL2405Mk03p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #29 - DFRobot - RHT And MQ - Mk13
29-13
DL2404Mk03p.ino
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Adafruit DS3231 Precision RTC FeatherWing - RTC
1 x Battery CR1220
4 x Pololu Carrier for MQ Gas Sensors
1 x SparkFun Hydrogen Gas Sensor - MQ-8
1 x 4.7K Ohm
1 x Pololu Carbon Monoxide & Flammable Gas Sensor - MQ-9
1 x 22k Ohm
1 x SparkFun Carbon Monoxide Gas Sensor - MQ-7
1 x 10K Ohm
1 x SparkFun Alcohol Gas Sensor - MQ-3
1 x 220k Ohm
1 x Temperature and Humidity Sensor - RHT03
1 x PIR Motion Sensor (JST)
1 x Switch
1 x 1K Ohm
1 x Gravity: Analog Soil Moisture Sensor
1 x Gravity: Analog Ambient Light Sensor
1 x Fermion: SHT40 Temperature & Humidity Sensor
3 x Fermion: BLE Sensor Beacon
3 x CR2032 Coin Cell Battery
1 x 1 x Lithium Ion Battery - 1000mAh
1 x Green LED
1 x SparkFun Serial Basic Breakout - CH340G
1 x SparkFun Cerberus USB Cable
1 x USB 3.1 Cable A to C
*/
// Include the Library Code
// EEPROM Library to Read and Write EEPROM
// with Unique ID for Unit
#include "EEPROM.h"
// Wire
#include <Wire.h>
// Arduino
#include <Arduino.h>
// BLE Device
#include <BLEDevice.h>
// BLE Utils
#include <BLEUtils.h>
// BLEScan
#include <BLEScan.h>
// BLE Advertised Device
#include <BLEAdvertisedDevice.h>
// BLE Eddystone URL
#include <BLEEddystoneURL.h>
// BLE Eddystone TLM
#include <BLEEddystoneTLM.h>
// BLE Beacon
#include <BLEBeacon.h>
// DS3231 RTC Date and Time
#include <RTClib.h>
// SD Card
#include "FS.h"
#include "SD.h"
#include "SPI.h"
// SHARP Memory Display
#include <Adafruit_SharpMem.h>
#include <Adafruit_GFX.h>
// RHT Temperature and Humidity Sensor
#include <SparkFun_RHT03.h>
// ENDIAN_CHANGE
#define ENDIAN_CHANGE_U16(x) ((((x)&0xFF00) >> 8) + (((x)&0xFF) << 8))
// DS3231 RTC Date and Time
RTC_DS3231 rtc;
String sDate;
String sTime;
// MicroSD Card
const int chipSelect = 13;
String zzzzzz = "";
// SHARP Memory Display
#define SHARP_SCK 4
#define SHARP_MOSI 16
#define SHARP_SS 17
// Set the size of the display here, e.g. 144x168!
Adafruit_SharpMem display(SHARP_SCK, SHARP_MOSI, SHARP_SS, 144, 168);
// The currently-available SHARP Memory Display (144x168 pixels)
// requires > 4K of microcontroller RAM; it WILL NOT WORK on Arduino Uno
// or other <4K "classic" devices.
#define BLACK 0
#define WHITE 1
// LED Green
int iLEDGreen = 2;
// Define LED
int iLED = 14;
// Fermion: SHT40 Temperature & Humidity Sensor
// Temperature
float TemperatureData;
float Temperature;
// Humidity
float HumidityData;
float Humidity;
// Gravity: Analog Ambient Light Sensor
float Sensor_Data;
// SData => 1~6000 Lux
float SData;
// Gravity: Analog Soil Moisture Sensor
float SensorSM;
float SDataSM;
// In seconds
int scanTime = 5;
// BLE Scan
BLEScan *pBLEScan;
// RHT Temperature and Humidity Sensor
// RHT03 data pin Digital 25
const int RHT03_DATA_PIN = 25;
// This creates a RTH03 object, which we'll use to interact with the sensor
RHT03 rht;
float latestHumidity;
float latestTempC;
// Gas Sensors MQ
// Hydrogen Gas Sensor - MQ-8
int iMQ8 = A0;
int iMQ8Raw = 0;
int iMQ8ppm = 0;
// Two points are taken from the curve in datasheet.
// With these two points, a line is formed which is
// "approximately equivalent" to the original curve.
float H2Curve[3] = {2.3, 0.93,-1.44};
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
int iMQ9 = A1;
int iMQ9Raw = 0;
int iMQ9ppm = 0;
// Carbon Monoxide Gas Sensor - MQ-7
int iMQ7 = A2;
int iMQ7Raw = 0;
int iMQ7ppm = 0;
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A3;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// PIR Motion
// Motion detector
const int iMotion = 26;
// Proximity
int proximity = LOW;
String Det = "";
// Switch
int iSwitch = 3;
// Variable for reading the Switch status
int iSwitchState = 0;
// My Advertised Device Callbacks
class MyAdvertisedDeviceCallbacks : public BLEAdvertisedDeviceCallbacks
{
// onResult
void onResult(BLEAdvertisedDevice advertisedDevice)
{
// Advertised Device
if (advertisedDevice.haveName())
{
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "SHT40"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// TemperatureData
TemperatureData = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
// HumidityData
HumidityData = int(cManufacturerData[5]<<8 | cManufacturerData[6]);
}
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "Fermion: Sensor Beacon"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// Sensor_Data
Sensor_Data = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
}
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "Soil Moisture"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// SensorSM
SensorSM = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
}
}
}
};
// EEPROM Unique ID Information
#define EEPROM_SIZE 64
String uid = "";
// Software Version Information
String sver = "29-13";
void loop() {
// DS3231 RTC Date and Time
isRTC();
// RHT Temperature and Humidity Sensor
isRHT03();
// Gas Sensors MQ
isGasSensor();
// isPIR Motion
isPIR();
// ScanResults
isBLEScanResults();
// Fermion: SHT40 Temperature & Humidity Sensor
isSHT40();
// Gravity: Analog Ambient Light Sensor
isAmbientLight();
// Soil Moisture
isSoilMoisture();
// Delay 4 Second
delay(4000);
// Read the state of the Switch value
iSwitchState = digitalRead(iSwitch);
// The Switch is HIGH:
if (iSwitchState == HIGH) {
// Display Date, Time, Temperature, Humidity
isDisplayDTTH();
} else {
// Display Temperature, Humidity, MQ, PIR
isDisplayDTMQPIR();
}
// MicroSD Card
isSD();
// iLED HIGH
digitalWrite(iLED, HIGH );
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #29 - DFRobot - RHT And MQ - Mk13
29-13
DL2404Mk03p.ino
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Adafruit DS3231 Precision RTC FeatherWing - RTC
1 x Battery CR1220
4 x Pololu Carrier for MQ Gas Sensors
1 x SparkFun Hydrogen Gas Sensor - MQ-8
1 x 4.7K Ohm
1 x Pololu Carbon Monoxide & Flammable Gas Sensor - MQ-9
1 x 22k Ohm
1 x SparkFun Carbon Monoxide Gas Sensor - MQ-7
1 x 10K Ohm
1 x SparkFun Alcohol Gas Sensor - MQ-3
1 x 220k Ohm
1 x Temperature and Humidity Sensor - RHT03
1 x PIR Motion Sensor (JST)
1 x Switch
1 x 1K Ohm
1 x Gravity: Analog Soil Moisture Sensor
1 x Gravity: Analog Ambient Light Sensor
1 x Fermion: SHT40 Temperature & Humidity Sensor
3 x Fermion: BLE Sensor Beacon
3 x CR2032 Coin Cell Battery
1 x 1 x Lithium Ion Battery - 1000mAh
1 x Green LED
1 x SparkFun Serial Basic Breakout - CH340G
1 x SparkFun Cerberus USB Cable
1 x USB 3.1 Cable A to C
*/
// Include the Library Code
// EEPROM Library to Read and Write EEPROM
// with Unique ID for Unit
#include "EEPROM.h"
// Wire
#include <Wire.h>
// Arduino
#include <Arduino.h>
// BLE Device
#include <BLEDevice.h>
// BLE Utils
#include <BLEUtils.h>
// BLEScan
#include <BLEScan.h>
// BLE Advertised Device
#include <BLEAdvertisedDevice.h>
// BLE Eddystone URL
#include <BLEEddystoneURL.h>
// BLE Eddystone TLM
#include <BLEEddystoneTLM.h>
// BLE Beacon
#include <BLEBeacon.h>
// DS3231 RTC Date and Time
#include <RTClib.h>
// SD Card
#include "FS.h"
#include "SD.h"
#include "SPI.h"
// SHARP Memory Display
#include <Adafruit_SharpMem.h>
#include <Adafruit_GFX.h>
// RHT Temperature and Humidity Sensor
#include <SparkFun_RHT03.h>
// ENDIAN_CHANGE
#define ENDIAN_CHANGE_U16(x) ((((x)&0xFF00) >> 8) + (((x)&0xFF) << 8))
// DS3231 RTC Date and Time
RTC_DS3231 rtc;
String sDate;
String sTime;
// MicroSD Card
const int chipSelect = 13;
String zzzzzz = "";
// SHARP Memory Display
#define SHARP_SCK 4
#define SHARP_MOSI 16
#define SHARP_SS 17
// Set the size of the display here, e.g. 144x168!
Adafruit_SharpMem display(SHARP_SCK, SHARP_MOSI, SHARP_SS, 144, 168);
// The currently-available SHARP Memory Display (144x168 pixels)
// requires > 4K of microcontroller RAM; it WILL NOT WORK on Arduino Uno
// or other <4K "classic" devices.
#define BLACK 0
#define WHITE 1
// LED Green
int iLEDGreen = 2;
// Define LED
int iLED = 14;
// Fermion: SHT40 Temperature & Humidity Sensor
// Temperature
float TemperatureData;
float Temperature;
// Humidity
float HumidityData;
float Humidity;
// Gravity: Analog Ambient Light Sensor
float Sensor_Data;
// SData => 1~6000 Lux
float SData;
// Gravity: Analog Soil Moisture Sensor
float SensorSM;
float SDataSM;
// In seconds
int scanTime = 5;
// BLE Scan
BLEScan *pBLEScan;
// RHT Temperature and Humidity Sensor
// RHT03 data pin Digital 25
const int RHT03_DATA_PIN = 25;
// This creates a RTH03 object, which we'll use to interact with the sensor
RHT03 rht;
float latestHumidity;
float latestTempC;
// Gas Sensors MQ
// Hydrogen Gas Sensor - MQ-8
int iMQ8 = A0;
int iMQ8Raw = 0;
int iMQ8ppm = 0;
// Two points are taken from the curve in datasheet.
// With these two points, a line is formed which is
// "approximately equivalent" to the original curve.
float H2Curve[3] = {2.3, 0.93,-1.44};
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
int iMQ9 = A1;
int iMQ9Raw = 0;
int iMQ9ppm = 0;
// Carbon Monoxide Gas Sensor - MQ-7
int iMQ7 = A2;
int iMQ7Raw = 0;
int iMQ7ppm = 0;
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A3;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// PIR Motion
// Motion detector
const int iMotion = 26;
// Proximity
int proximity = LOW;
String Det = "";
// Switch
int iSwitch = 3;
// Variable for reading the Switch status
int iSwitchState = 0;
// My Advertised Device Callbacks
class MyAdvertisedDeviceCallbacks : public BLEAdvertisedDeviceCallbacks
{
// onResult
void onResult(BLEAdvertisedDevice advertisedDevice)
{
// Advertised Device
if (advertisedDevice.haveName())
{
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "SHT40"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// TemperatureData
TemperatureData = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
// HumidityData
HumidityData = int(cManufacturerData[5]<<8 | cManufacturerData[6]);
}
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "Fermion: Sensor Beacon"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// Sensor_Data
Sensor_Data = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
}
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "Soil Moisture"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// SensorSM
SensorSM = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
}
}
}
};
// EEPROM Unique ID Information
#define EEPROM_SIZE 64
String uid = "";
// Software Version Information
String sver = "29-13";
void loop() {
// DS3231 RTC Date and Time
isRTC();
// RHT Temperature and Humidity Sensor
isRHT03();
// Gas Sensors MQ
isGasSensor();
// isPIR Motion
isPIR();
// ScanResults
isBLEScanResults();
// Fermion: SHT40 Temperature & Humidity Sensor
isSHT40();
// Gravity: Analog Ambient Light Sensor
isAmbientLight();
// Soil Moisture
isSoilMoisture();
// Delay 4 Second
delay(4000);
// Read the state of the Switch value
iSwitchState = digitalRead(iSwitch);
// The Switch is HIGH:
if (iSwitchState == HIGH) {
// Display Date, Time, Temperature, Humidity
isDisplayDTTH();
} else {
// Display Temperature, Humidity, MQ, PIR
isDisplayDTMQPIR();
}
// MicroSD Card
isSD();
// iLED HIGH
digitalWrite(iLED, HIGH );
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #29 - DFRobot - RHT And MQ - Mk13
29-13
DL2404Mk03p.ino
1 x DFRobot FireBeetle 2 ESP32-E
1 x Adafruit SHARP Memory Display
1 x Adafruit MicroSD card breakout board+
1 x MicroSD 16 GB
1 x Adafruit DS3231 Precision RTC FeatherWing - RTC
1 x Battery CR1220
4 x Pololu Carrier for MQ Gas Sensors
1 x SparkFun Hydrogen Gas Sensor - MQ-8
1 x 4.7K Ohm
1 x Pololu Carbon Monoxide & Flammable Gas Sensor - MQ-9
1 x 22k Ohm
1 x SparkFun Carbon Monoxide Gas Sensor - MQ-7
1 x 10K Ohm
1 x SparkFun Alcohol Gas Sensor - MQ-3
1 x 220k Ohm
1 x Temperature and Humidity Sensor - RHT03
1 x PIR Motion Sensor (JST)
1 x Switch
1 x 1K Ohm
1 x Gravity: Analog Soil Moisture Sensor
1 x Gravity: Analog Ambient Light Sensor
1 x Fermion: SHT40 Temperature & Humidity Sensor
3 x Fermion: BLE Sensor Beacon
3 x CR2032 Coin Cell Battery
1 x 1 x Lithium Ion Battery - 1000mAh
1 x Green LED
1 x SparkFun Serial Basic Breakout - CH340G
1 x SparkFun Cerberus USB Cable
1 x USB 3.1 Cable A to C
*/
// Include the Library Code
// EEPROM Library to Read and Write EEPROM
// with Unique ID for Unit
#include "EEPROM.h"
// Wire
#include <Wire.h>
// Arduino
#include <Arduino.h>
// BLE Device
#include <BLEDevice.h>
// BLE Utils
#include <BLEUtils.h>
// BLEScan
#include <BLEScan.h>
// BLE Advertised Device
#include <BLEAdvertisedDevice.h>
// BLE Eddystone URL
#include <BLEEddystoneURL.h>
// BLE Eddystone TLM
#include <BLEEddystoneTLM.h>
// BLE Beacon
#include <BLEBeacon.h>
// DS3231 RTC Date and Time
#include <RTClib.h>
// SD Card
#include "FS.h"
#include "SD.h"
#include "SPI.h"
// SHARP Memory Display
#include <Adafruit_SharpMem.h>
#include <Adafruit_GFX.h>
// RHT Temperature and Humidity Sensor
#include <SparkFun_RHT03.h>
// ENDIAN_CHANGE
#define ENDIAN_CHANGE_U16(x) ((((x)&0xFF00) >> 8) + (((x)&0xFF) << 8))
// DS3231 RTC Date and Time
RTC_DS3231 rtc;
String sDate;
String sTime;
// MicroSD Card
const int chipSelect = 13;
String zzzzzz = "";
// SHARP Memory Display
#define SHARP_SCK 4
#define SHARP_MOSI 16
#define SHARP_SS 17
// Set the size of the display here, e.g. 144x168!
Adafruit_SharpMem display(SHARP_SCK, SHARP_MOSI, SHARP_SS, 144, 168);
// The currently-available SHARP Memory Display (144x168 pixels)
// requires > 4K of microcontroller RAM; it WILL NOT WORK on Arduino Uno
// or other <4K "classic" devices.
#define BLACK 0
#define WHITE 1
// LED Green
int iLEDGreen = 2;
// Define LED
int iLED = 14;
// Fermion: SHT40 Temperature & Humidity Sensor
// Temperature
float TemperatureData;
float Temperature;
// Humidity
float HumidityData;
float Humidity;
// Gravity: Analog Ambient Light Sensor
float Sensor_Data;
// SData => 1~6000 Lux
float SData;
// Gravity: Analog Soil Moisture Sensor
float SensorSM;
float SDataSM;
// In seconds
int scanTime = 5;
// BLE Scan
BLEScan *pBLEScan;
// RHT Temperature and Humidity Sensor
// RHT03 data pin Digital 25
const int RHT03_DATA_PIN = 25;
// This creates a RTH03 object, which we'll use to interact with the sensor
RHT03 rht;
float latestHumidity;
float latestTempC;
// Gas Sensors MQ
// Hydrogen Gas Sensor - MQ-8
int iMQ8 = A0;
int iMQ8Raw = 0;
int iMQ8ppm = 0;
// Two points are taken from the curve in datasheet.
// With these two points, a line is formed which is
// "approximately equivalent" to the original curve.
float H2Curve[3] = {2.3, 0.93,-1.44};
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
int iMQ9 = A1;
int iMQ9Raw = 0;
int iMQ9ppm = 0;
// Carbon Monoxide Gas Sensor - MQ-7
int iMQ7 = A2;
int iMQ7Raw = 0;
int iMQ7ppm = 0;
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A3;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// PIR Motion
// Motion detector
const int iMotion = 26;
// Proximity
int proximity = LOW;
String Det = "";
// Switch
int iSwitch = 3;
// Variable for reading the Switch status
int iSwitchState = 0;
// My Advertised Device Callbacks
class MyAdvertisedDeviceCallbacks : public BLEAdvertisedDeviceCallbacks
{
// onResult
void onResult(BLEAdvertisedDevice advertisedDevice)
{
// Advertised Device
if (advertisedDevice.haveName())
{
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "SHT40"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// TemperatureData
TemperatureData = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
// HumidityData
HumidityData = int(cManufacturerData[5]<<8 | cManufacturerData[6]);
}
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "Fermion: Sensor Beacon"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// Sensor_Data
Sensor_Data = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
}
// Name: Fermion: Sensor Beacon
if(String(advertisedDevice.getName().c_str()) == "Soil Moisture"){
// strManufacturerData
std::string strManufacturerData = advertisedDevice.getManufacturerData();
uint8_t cManufacturerData[100];
strManufacturerData.copy((char *)cManufacturerData, strManufacturerData.length(), 0);
// strManufacturerData.length
for (int i = 0; i < strManufacturerData.length(); i++)
{
// cManufacturerData[i]
cManufacturerData[i];
}
// SensorSM
SensorSM = int(cManufacturerData[2]<<8 | cManufacturerData[3]);
}
}
}
};
// EEPROM Unique ID Information
#define EEPROM_SIZE 64
String uid = "";
// Software Version Information
String sver = "29-13";
void loop() {
// DS3231 RTC Date and Time
isRTC();
// RHT Temperature and Humidity Sensor
isRHT03();
// Gas Sensors MQ
isGasSensor();
// isPIR Motion
isPIR();
// ScanResults
isBLEScanResults();
// Fermion: SHT40 Temperature & Humidity Sensor
isSHT40();
// Gravity: Analog Ambient Light Sensor
isAmbientLight();
// Soil Moisture
isSoilMoisture();
// Delay 4 Second
delay(4000);
// Read the state of the Switch value
iSwitchState = digitalRead(iSwitch);
// The Switch is HIGH:
if (iSwitchState == HIGH) {
// Display Date, Time, Temperature, Humidity
isDisplayDTTH();
} else {
// Display Temperature, Humidity, MQ, PIR
isDisplayDTMQPIR();
}
// MicroSD Card
isSD();
// iLED HIGH
digitalWrite(iLED, HIGH );
// Delay 1 Second
delay(1000);
}
getAmbientLight.ino
// Gravity: Analog Ambient Light Sensor
// Ambient Light
void isAmbientLight(){
// Analog Ambient Light Sensor
// SData => 1~6000 Lux
SData = map(Sensor_Data, 1, 3000, 1, 6000);
}
// Gravity: Analog Ambient Light Sensor
// Ambient Light
void isAmbientLight(){
// Analog Ambient Light Sensor
// SData => 1~6000 Lux
SData = map(Sensor_Data, 1, 3000, 1, 6000);
}
// Gravity: Analog Ambient Light Sensor
// Ambient Light
void isAmbientLight(){
// Analog Ambient Light Sensor
// SData => 1~6000 Lux
SData = map(Sensor_Data, 1, 3000, 1, 6000);
}
getBLEScan.ino
// getBLEScan
// Setup BLE Scan
void isSetupBLEScan(){
// BLE Device
BLEDevice::init("");
// Create new scan
pBLEScan = BLEDevice::getScan();
// Set Advertised Device Callbacks
pBLEScan->setAdvertisedDeviceCallbacks(new MyAdvertisedDeviceCallbacks());
// Active scan uses more power, but get results faster
pBLEScan->setActiveScan(true);
// Set Interval
pBLEScan->setInterval(100);
// Less or equal setInterval value
pBLEScan->setWindow(99);
}
// BLE Scan Results
void isBLEScanResults(){
// Put your main code here, to run repeatedly:
BLEScanResults foundDevices = pBLEScan->start(scanTime, false);
// Delete results fromBLEScan buffer to release memory
pBLEScan->clearResults();
}
// getBLEScan
// Setup BLE Scan
void isSetupBLEScan(){
// BLE Device
BLEDevice::init("");
// Create new scan
pBLEScan = BLEDevice::getScan();
// Set Advertised Device Callbacks
pBLEScan->setAdvertisedDeviceCallbacks(new MyAdvertisedDeviceCallbacks());
// Active scan uses more power, but get results faster
pBLEScan->setActiveScan(true);
// Set Interval
pBLEScan->setInterval(100);
// Less or equal setInterval value
pBLEScan->setWindow(99);
}
// BLE Scan Results
void isBLEScanResults(){
// Put your main code here, to run repeatedly:
BLEScanResults foundDevices = pBLEScan->start(scanTime, false);
// Delete results fromBLEScan buffer to release memory
pBLEScan->clearResults();
}
// getBLEScan
// Setup BLE Scan
void isSetupBLEScan(){
// BLE Device
BLEDevice::init("");
// Create new scan
pBLEScan = BLEDevice::getScan();
// Set Advertised Device Callbacks
pBLEScan->setAdvertisedDeviceCallbacks(new MyAdvertisedDeviceCallbacks());
// Active scan uses more power, but get results faster
pBLEScan->setActiveScan(true);
// Set Interval
pBLEScan->setInterval(100);
// Less or equal setInterval value
pBLEScan->setWindow(99);
}
// BLE Scan Results
void isBLEScanResults(){
// Put your main code here, to run repeatedly:
BLEScanResults foundDevices = pBLEScan->start(scanTime, false);
// Delete results fromBLEScan buffer to release memory
pBLEScan->clearResults();
}
getDisplay.ino
// SHARP Memory Display
// SHARP Memory Display - UID
void isDisplayUID() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(3);
display.setTextColor(BLACK);
// Don Luc Electronics
display.setCursor(0,10);
display.println( "Don Luc" );
display.setTextSize(2);
display.setCursor(0,40);
display.println( "Electronics" );
// Version
//display.setTextSize(3);
display.setCursor(0,70);
display.println( "Version" );
//display.setTextSize(2);
display.setCursor(0,95);
display.println( sver );
// EEPROM
display.setCursor(0,120);
display.println( "EEPROM" );
display.setCursor(0,140);
display.println( uid );
// Refresh
display.refresh();
delay( 100 );
}
// Display Date, Time, Temperature, Humidity, Ambient Light, Soil Moisture
void isDisplayDTTH() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Date
display.setCursor(0,5);
display.println( sDate );
// Time
display.setCursor(0,30);
display.println( sTime );
// Temperature
display.setCursor(0,55);
display.print( Temperature );
display.println( "C" );
// Humidity
display.setCursor(0,80);
display.print( Humidity );
display.println( "%" );
// Lux
display.setCursor(0,105);
display.println( SData );
// Soil Moisture
display.setCursor(0,130);
display.println( SDataSM );
// Refresh
display.refresh();
delay( 100 );
}
// Display Temperature, Humidity, MQ, PIR
void isDisplayDTMQPIR() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Temperature
display.setCursor(0,5);
display.print( latestTempC );
display.println( "C" );
// Humidity
display.setCursor(0,30);
display.print( latestHumidity );
display.println( "%" );
// MQ-8
display.setCursor(0,55);
display.print( "MQ-8: " );
display.print( iMQ8ppm );
display.println( " PPM" );
// MQ-9
display.setCursor(0,80);
display.print( "MQ-9: " );
display.print( iMQ9ppm );
display.println( " PPM" );
// MQ-7
display.setCursor(0,105);
display.print( "MQ-7: " );
display.print( iMQ7ppm );
display.println( " PPM" );
// MQ-3
display.setCursor(0,130);
display.print( "MQ-3: " );
display.print( iMQ3ppm );
display.println( "%" );
// PIR
display.setCursor(0,145);
display.println( Det );
// Refresh
display.refresh();
delay( 100 );
}
// SHARP Memory Display
// SHARP Memory Display - UID
void isDisplayUID() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(3);
display.setTextColor(BLACK);
// Don Luc Electronics
display.setCursor(0,10);
display.println( "Don Luc" );
display.setTextSize(2);
display.setCursor(0,40);
display.println( "Electronics" );
// Version
//display.setTextSize(3);
display.setCursor(0,70);
display.println( "Version" );
//display.setTextSize(2);
display.setCursor(0,95);
display.println( sver );
// EEPROM
display.setCursor(0,120);
display.println( "EEPROM" );
display.setCursor(0,140);
display.println( uid );
// Refresh
display.refresh();
delay( 100 );
}
// Display Date, Time, Temperature, Humidity, Ambient Light, Soil Moisture
void isDisplayDTTH() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Date
display.setCursor(0,5);
display.println( sDate );
// Time
display.setCursor(0,30);
display.println( sTime );
// Temperature
display.setCursor(0,55);
display.print( Temperature );
display.println( "C" );
// Humidity
display.setCursor(0,80);
display.print( Humidity );
display.println( "%" );
// Lux
display.setCursor(0,105);
display.println( SData );
// Soil Moisture
display.setCursor(0,130);
display.println( SDataSM );
// Refresh
display.refresh();
delay( 100 );
}
// Display Temperature, Humidity, MQ, PIR
void isDisplayDTMQPIR() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Temperature
display.setCursor(0,5);
display.print( latestTempC );
display.println( "C" );
// Humidity
display.setCursor(0,30);
display.print( latestHumidity );
display.println( "%" );
// MQ-8
display.setCursor(0,55);
display.print( "MQ-8: " );
display.print( iMQ8ppm );
display.println( " PPM" );
// MQ-9
display.setCursor(0,80);
display.print( "MQ-9: " );
display.print( iMQ9ppm );
display.println( " PPM" );
// MQ-7
display.setCursor(0,105);
display.print( "MQ-7: " );
display.print( iMQ7ppm );
display.println( " PPM" );
// MQ-3
display.setCursor(0,130);
display.print( "MQ-3: " );
display.print( iMQ3ppm );
display.println( "%" );
// PIR
display.setCursor(0,145);
display.println( Det );
// Refresh
display.refresh();
delay( 100 );
}
// SHARP Memory Display
// SHARP Memory Display - UID
void isDisplayUID() {
// Text Display
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(3);
display.setTextColor(BLACK);
// Don Luc Electronics
display.setCursor(0,10);
display.println( "Don Luc" );
display.setTextSize(2);
display.setCursor(0,40);
display.println( "Electronics" );
// Version
//display.setTextSize(3);
display.setCursor(0,70);
display.println( "Version" );
//display.setTextSize(2);
display.setCursor(0,95);
display.println( sver );
// EEPROM
display.setCursor(0,120);
display.println( "EEPROM" );
display.setCursor(0,140);
display.println( uid );
// Refresh
display.refresh();
delay( 100 );
}
// Display Date, Time, Temperature, Humidity, Ambient Light, Soil Moisture
void isDisplayDTTH() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Date
display.setCursor(0,5);
display.println( sDate );
// Time
display.setCursor(0,30);
display.println( sTime );
// Temperature
display.setCursor(0,55);
display.print( Temperature );
display.println( "C" );
// Humidity
display.setCursor(0,80);
display.print( Humidity );
display.println( "%" );
// Lux
display.setCursor(0,105);
display.println( SData );
// Soil Moisture
display.setCursor(0,130);
display.println( SDataSM );
// Refresh
display.refresh();
delay( 100 );
}
// Display Temperature, Humidity, MQ, PIR
void isDisplayDTMQPIR() {
// Text Display Date
// Clear Display
display.clearDisplay();
display.setRotation(4);
display.setTextSize(2);
display.setTextColor(BLACK);
// Temperature
display.setCursor(0,5);
display.print( latestTempC );
display.println( "C" );
// Humidity
display.setCursor(0,30);
display.print( latestHumidity );
display.println( "%" );
// MQ-8
display.setCursor(0,55);
display.print( "MQ-8: " );
display.print( iMQ8ppm );
display.println( " PPM" );
// MQ-9
display.setCursor(0,80);
display.print( "MQ-9: " );
display.print( iMQ9ppm );
display.println( " PPM" );
// MQ-7
display.setCursor(0,105);
display.print( "MQ-7: " );
display.print( iMQ7ppm );
display.println( " PPM" );
// MQ-3
display.setCursor(0,130);
display.print( "MQ-3: " );
display.print( iMQ3ppm );
display.println( "%" );
// PIR
display.setCursor(0,145);
display.println( Det );
// Refresh
display.refresh();
delay( 100 );
}
getEEPROM.ino
// EEPROM
// isUID EEPROM Unique ID
void isUID()
{
// Is Unit ID
uid = "";
for (int x = 0; x < 7; x++)
{
uid = uid + char(EEPROM.read(x));
}
}
// EEPROM
// isUID EEPROM Unique ID
void isUID()
{
// Is Unit ID
uid = "";
for (int x = 0; x < 7; x++)
{
uid = uid + char(EEPROM.read(x));
}
}
// EEPROM
// isUID EEPROM Unique ID
void isUID()
{
// Is Unit ID
uid = "";
for (int x = 0; x < 7; x++)
{
uid = uid + char(EEPROM.read(x));
}
}
getGasSensorMQ.ino
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Hydrogen Gas Sensor - MQ-8
iMQ8Raw = analogRead( iMQ8 );
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
iMQ9Raw = analogRead( iMQ9 );
// Carbon Monoxide Gas Sensor - MQ-7
iMQ7Raw = analogRead( iMQ7 );
// Alcohol Gas Sensor - MQ-3
iMQ3Raw = analogRead( iMQ3 );
// Caclulate the PPM of each gas sensors
// Hydrogen Gas Sensor - MQ-8
iMQ8ppm = isMQ8( iMQ8Raw );
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
iMQ9ppm = isMQ9( iMQ9Raw );
// Carbon Monoxide Gas Sensor - MQ-7
iMQ7ppm = isMQ7( iMQ7Raw );
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
}
// Hydrogen Gas Sensor - MQ-8 - PPM
int isMQ8(double rawValue) {
// RvRo
double RvRo = rawValue * (3.3 / 4095);
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
//return (pow(4.7,( ((log(RvRo)-H2Curve[1])/H2Curve[2]) + H2Curve[0])));
}
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
int isMQ9(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
}
// Carbon Monoxide Gas Sensor - MQ-7
int isMQ7(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Hydrogen Gas Sensor - MQ-8
iMQ8Raw = analogRead( iMQ8 );
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
iMQ9Raw = analogRead( iMQ9 );
// Carbon Monoxide Gas Sensor - MQ-7
iMQ7Raw = analogRead( iMQ7 );
// Alcohol Gas Sensor - MQ-3
iMQ3Raw = analogRead( iMQ3 );
// Caclulate the PPM of each gas sensors
// Hydrogen Gas Sensor - MQ-8
iMQ8ppm = isMQ8( iMQ8Raw );
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
iMQ9ppm = isMQ9( iMQ9Raw );
// Carbon Monoxide Gas Sensor - MQ-7
iMQ7ppm = isMQ7( iMQ7Raw );
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
}
// Hydrogen Gas Sensor - MQ-8 - PPM
int isMQ8(double rawValue) {
// RvRo
double RvRo = rawValue * (3.3 / 4095);
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
//return (pow(4.7,( ((log(RvRo)-H2Curve[1])/H2Curve[2]) + H2Curve[0])));
}
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
int isMQ9(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
}
// Carbon Monoxide Gas Sensor - MQ-7
int isMQ7(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Hydrogen Gas Sensor - MQ-8
iMQ8Raw = analogRead( iMQ8 );
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
iMQ9Raw = analogRead( iMQ9 );
// Carbon Monoxide Gas Sensor - MQ-7
iMQ7Raw = analogRead( iMQ7 );
// Alcohol Gas Sensor - MQ-3
iMQ3Raw = analogRead( iMQ3 );
// Caclulate the PPM of each gas sensors
// Hydrogen Gas Sensor - MQ-8
iMQ8ppm = isMQ8( iMQ8Raw );
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
iMQ9ppm = isMQ9( iMQ9Raw );
// Carbon Monoxide Gas Sensor - MQ-7
iMQ7ppm = isMQ7( iMQ7Raw );
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
}
// Hydrogen Gas Sensor - MQ-8 - PPM
int isMQ8(double rawValue) {
// RvRo
double RvRo = rawValue * (3.3 / 4095);
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
//return (pow(4.7,( ((log(RvRo)-H2Curve[1])/H2Curve[2]) + H2Curve[0])));
}
// Carbon Monoxide & Flammable Gas Sensor - MQ-9
int isMQ9(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
}
// Carbon Monoxide Gas Sensor - MQ-7
int isMQ7(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double ppm = 3.027*exp(1.0698*( RvRo ));
return ppm;
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue * 3.3 / 4095;
double bac = RvRo * 0.21;
return bac;
}
getPIR.ino
// PIR Motion
// Setup PIR
void isSetupPIR() {
// Setup PIR Montion
pinMode(iMotion, INPUT_PULLUP);
}
// isPIR Motion
void isPIR() {
// Proximity
proximity = digitalRead(iMotion);
if (proximity == LOW)
{
// PIR Motion Sensor's LOW, Motion is detected
Det = "Motion Yes";
}
else
{
// PIR Motion Sensor's HIGH
Det = "No";
}
}
// PIR Motion
// Setup PIR
void isSetupPIR() {
// Setup PIR Montion
pinMode(iMotion, INPUT_PULLUP);
}
// isPIR Motion
void isPIR() {
// Proximity
proximity = digitalRead(iMotion);
if (proximity == LOW)
{
// PIR Motion Sensor's LOW, Motion is detected
Det = "Motion Yes";
}
else
{
// PIR Motion Sensor's HIGH
Det = "No";
}
}
// PIR Motion
// Setup PIR
void isSetupPIR() {
// Setup PIR Montion
pinMode(iMotion, INPUT_PULLUP);
}
// isPIR Motion
void isPIR() {
// Proximity
proximity = digitalRead(iMotion);
if (proximity == LOW)
{
// PIR Motion Sensor's LOW, Motion is detected
Det = "Motion Yes";
}
else
{
// PIR Motion Sensor's HIGH
Det = "No";
}
}
getRHT.ino
// RHT Temperature and Humidity Sensor
// Setup RHT Temperature and Humidity Sensor
void isSetupRTH03() {
// RHT Temperature and Humidity Sensor
// Call rht.begin() to initialize the sensor and our data pin
rht.begin(RHT03_DATA_PIN);
}
// RHT Temperature and Humidity Sensor
void isRHT03(){
// Call rht.update() to get new humidity and temperature values from the sensor.
int updateRet = rht.update();
// The humidity(), tempC(), and tempF() functions can be called -- after
// a successful update() -- to get the last humidity and temperature value
latestHumidity = rht.humidity();
latestTempC = rht.tempC();
}
// RHT Temperature and Humidity Sensor
// Setup RHT Temperature and Humidity Sensor
void isSetupRTH03() {
// RHT Temperature and Humidity Sensor
// Call rht.begin() to initialize the sensor and our data pin
rht.begin(RHT03_DATA_PIN);
}
// RHT Temperature and Humidity Sensor
void isRHT03(){
// Call rht.update() to get new humidity and temperature values from the sensor.
int updateRet = rht.update();
// The humidity(), tempC(), and tempF() functions can be called -- after
// a successful update() -- to get the last humidity and temperature value
latestHumidity = rht.humidity();
latestTempC = rht.tempC();
}
// RHT Temperature and Humidity Sensor
// Setup RHT Temperature and Humidity Sensor
void isSetupRTH03() {
// RHT Temperature and Humidity Sensor
// Call rht.begin() to initialize the sensor and our data pin
rht.begin(RHT03_DATA_PIN);
}
// RHT Temperature and Humidity Sensor
void isRHT03(){
// Call rht.update() to get new humidity and temperature values from the sensor.
int updateRet = rht.update();
// The humidity(), tempC(), and tempF() functions can be called -- after
// a successful update() -- to get the last humidity and temperature value
latestHumidity = rht.humidity();
latestTempC = rht.tempC();
}
getRTC.ino
// DS3231 RTC Date and Time
// Setup DS3231 RTC
void isSetupRTC() {
if (! rtc.begin()) {
while (1);
}
if (rtc.lostPower()) {
// Following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
// rtc.adjust(DateTime(2014, 1, 21, 3, 0, 0));
}
}
// DS3231 RTC Date and Time
void isRTC(){
// Date and Time
sDate = "";
sTime = "";
// Date Time
DateTime now = rtc.now();
// sData
sDate += String(now.year(), DEC);
sDate += "/";
sDate += String(now.month(), DEC);
sDate += "/";
sDate += String(now.day(), DEC);
// sTime
sTime += String(now.hour(), DEC);
sTime += ":";
sTime += String(now.minute(), DEC);
sTime += ":";
sTime += String(now.second(), DEC);
}
// DS3231 RTC Date and Time
// Setup DS3231 RTC
void isSetupRTC() {
if (! rtc.begin()) {
while (1);
}
if (rtc.lostPower()) {
// Following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
// rtc.adjust(DateTime(2014, 1, 21, 3, 0, 0));
}
}
// DS3231 RTC Date and Time
void isRTC(){
// Date and Time
sDate = "";
sTime = "";
// Date Time
DateTime now = rtc.now();
// sData
sDate += String(now.year(), DEC);
sDate += "/";
sDate += String(now.month(), DEC);
sDate += "/";
sDate += String(now.day(), DEC);
// sTime
sTime += String(now.hour(), DEC);
sTime += ":";
sTime += String(now.minute(), DEC);
sTime += ":";
sTime += String(now.second(), DEC);
}
// DS3231 RTC Date and Time
// Setup DS3231 RTC
void isSetupRTC() {
if (! rtc.begin()) {
while (1);
}
if (rtc.lostPower()) {
// Following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
// rtc.adjust(DateTime(2014, 1, 21, 3, 0, 0));
}
}
// DS3231 RTC Date and Time
void isRTC(){
// Date and Time
sDate = "";
sTime = "";
// Date Time
DateTime now = rtc.now();
// sData
sDate += String(now.year(), DEC);
sDate += "/";
sDate += String(now.month(), DEC);
sDate += "/";
sDate += String(now.day(), DEC);
// sTime
sTime += String(now.hour(), DEC);
sTime += ":";
sTime += String(now.minute(), DEC);
sTime += ":";
sTime += String(now.second(), DEC);
}
getSD.ino
// MicroSD Card
// MicroSD Setup
void setupSD() {
// MicroSD Card
pinMode( chipSelect , OUTPUT );
if(!SD.begin( chipSelect )){
;
return;
}
uint8_t cardType = SD.cardType();
// CARD NONE
if(cardType == CARD_NONE){
;
return;
}
// SD Card Type
if(cardType == CARD_MMC){
;
} else if(cardType == CARD_SD){
;
} else if(cardType == CARD_SDHC){
;
} else {
;
}
// Size
uint64_t cardSize = SD.cardSize() / (1024 * 1024);
}
// MicroSD Card
void isSD() {
zzzzzz = "";
// DFR|EEPROM Unique ID|Version|Date|Time|Temperature|Humidity|Lux|
// Soil Moisture|Temperature|Humidity|MQ8|MQ9|MQ7|MQ3|PIR|*\r
zzzzzz = "DFR|" + uid + "|" + sver + "|" + sDate + "|" + sTime + "|"
+ String(Temperature) + "C|" + String(Humidity) + "%|"
+ String(SData) + "|" + String(SDataSM) + "|" + String(latestTempC) + "C|"
+ String(latestHumidity) + "%|" + String(iMQ8ppm) +
" PPM|" + String(iMQ9ppm) + " PPM|" + String(iMQ7ppm) + " PPM|" +
String(iMQ3ppm) + "%|" + String(Det) + "|*\r";
// msg + 1
char msg[zzzzzz.length() + 1];
zzzzzz.toCharArray(msg, zzzzzz.length() + 1);
// Append File
appendFile(SD, "/dfrdata.txt", msg );
}
// List Dir
void listDir(fs::FS &fs, const char * dirname, uint8_t levels){
// List Dir
dirname;
File root = fs.open(dirname);
if(!root){
return;
}
if(!root.isDirectory()){
return;
}
File file = root.openNextFile();
while(file){
if(file.isDirectory()){
file.name();
if(levels){
listDir(fs, file.name(), levels -1);
}
} else {
file.name();
file.size();
}
file = root.openNextFile();
}
}
// Write File
void writeFile(fs::FS &fs, const char * path, const char * message){
// Write File
path;
File file = fs.open(path, FILE_WRITE);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// Append File
void appendFile(fs::FS &fs, const char * path, const char * message){
// Append File
path;
File file = fs.open(path, FILE_APPEND);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// MicroSD Card
// MicroSD Setup
void setupSD() {
// MicroSD Card
pinMode( chipSelect , OUTPUT );
if(!SD.begin( chipSelect )){
;
return;
}
uint8_t cardType = SD.cardType();
// CARD NONE
if(cardType == CARD_NONE){
;
return;
}
// SD Card Type
if(cardType == CARD_MMC){
;
} else if(cardType == CARD_SD){
;
} else if(cardType == CARD_SDHC){
;
} else {
;
}
// Size
uint64_t cardSize = SD.cardSize() / (1024 * 1024);
}
// MicroSD Card
void isSD() {
zzzzzz = "";
// DFR|EEPROM Unique ID|Version|Date|Time|Temperature|Humidity|Lux|
// Soil Moisture|Temperature|Humidity|MQ8|MQ9|MQ7|MQ3|PIR|*\r
zzzzzz = "DFR|" + uid + "|" + sver + "|" + sDate + "|" + sTime + "|"
+ String(Temperature) + "C|" + String(Humidity) + "%|"
+ String(SData) + "|" + String(SDataSM) + "|" + String(latestTempC) + "C|"
+ String(latestHumidity) + "%|" + String(iMQ8ppm) +
" PPM|" + String(iMQ9ppm) + " PPM|" + String(iMQ7ppm) + " PPM|" +
String(iMQ3ppm) + "%|" + String(Det) + "|*\r";
// msg + 1
char msg[zzzzzz.length() + 1];
zzzzzz.toCharArray(msg, zzzzzz.length() + 1);
// Append File
appendFile(SD, "/dfrdata.txt", msg );
}
// List Dir
void listDir(fs::FS &fs, const char * dirname, uint8_t levels){
// List Dir
dirname;
File root = fs.open(dirname);
if(!root){
return;
}
if(!root.isDirectory()){
return;
}
File file = root.openNextFile();
while(file){
if(file.isDirectory()){
file.name();
if(levels){
listDir(fs, file.name(), levels -1);
}
} else {
file.name();
file.size();
}
file = root.openNextFile();
}
}
// Write File
void writeFile(fs::FS &fs, const char * path, const char * message){
// Write File
path;
File file = fs.open(path, FILE_WRITE);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// Append File
void appendFile(fs::FS &fs, const char * path, const char * message){
// Append File
path;
File file = fs.open(path, FILE_APPEND);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// MicroSD Card
// MicroSD Setup
void setupSD() {
// MicroSD Card
pinMode( chipSelect , OUTPUT );
if(!SD.begin( chipSelect )){
;
return;
}
uint8_t cardType = SD.cardType();
// CARD NONE
if(cardType == CARD_NONE){
;
return;
}
// SD Card Type
if(cardType == CARD_MMC){
;
} else if(cardType == CARD_SD){
;
} else if(cardType == CARD_SDHC){
;
} else {
;
}
// Size
uint64_t cardSize = SD.cardSize() / (1024 * 1024);
}
// MicroSD Card
void isSD() {
zzzzzz = "";
// DFR|EEPROM Unique ID|Version|Date|Time|Temperature|Humidity|Lux|
// Soil Moisture|Temperature|Humidity|MQ8|MQ9|MQ7|MQ3|PIR|*\r
zzzzzz = "DFR|" + uid + "|" + sver + "|" + sDate + "|" + sTime + "|"
+ String(Temperature) + "C|" + String(Humidity) + "%|"
+ String(SData) + "|" + String(SDataSM) + "|" + String(latestTempC) + "C|"
+ String(latestHumidity) + "%|" + String(iMQ8ppm) +
" PPM|" + String(iMQ9ppm) + " PPM|" + String(iMQ7ppm) + " PPM|" +
String(iMQ3ppm) + "%|" + String(Det) + "|*\r";
// msg + 1
char msg[zzzzzz.length() + 1];
zzzzzz.toCharArray(msg, zzzzzz.length() + 1);
// Append File
appendFile(SD, "/dfrdata.txt", msg );
}
// List Dir
void listDir(fs::FS &fs, const char * dirname, uint8_t levels){
// List Dir
dirname;
File root = fs.open(dirname);
if(!root){
return;
}
if(!root.isDirectory()){
return;
}
File file = root.openNextFile();
while(file){
if(file.isDirectory()){
file.name();
if(levels){
listDir(fs, file.name(), levels -1);
}
} else {
file.name();
file.size();
}
file = root.openNextFile();
}
}
// Write File
void writeFile(fs::FS &fs, const char * path, const char * message){
// Write File
path;
File file = fs.open(path, FILE_WRITE);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
// Append File
void appendFile(fs::FS &fs, const char * path, const char * message){
// Append File
path;
File file = fs.open(path, FILE_APPEND);
if(!file){
return;
}
if(file.print(message)){
;
} else {
;
}
file.close();
}
getSHT40.ino
// Fermion: SHT40 Temperature & Humidity Sensor
// SHT40 Temperature & Humidity
void isSHT40(){
// Fermion: SHT40 Temperature & Humidity Sensor
// Temperature
Temperature = (175 * TemperatureData/65535) - 45;
// Humidity
Humidity = (125 * HumidityData/65535) - 6;
}
// Fermion: SHT40 Temperature & Humidity Sensor
// SHT40 Temperature & Humidity
void isSHT40(){
// Fermion: SHT40 Temperature & Humidity Sensor
// Temperature
Temperature = (175 * TemperatureData/65535) - 45;
// Humidity
Humidity = (125 * HumidityData/65535) - 6;
}
// Fermion: SHT40 Temperature & Humidity Sensor
// SHT40 Temperature & Humidity
void isSHT40(){
// Fermion: SHT40 Temperature & Humidity Sensor
// Temperature
Temperature = (175 * TemperatureData/65535) - 45;
// Humidity
Humidity = (125 * HumidityData/65535) - 6;
}
getSoilMoisture.ino
// Gravity: Analog Soil Moisture Sensor
// Soil Moisture
void isSoilMoisture(){
// SDataSM => 0~900 Soil Moisture
SDataSM = map( SensorSM, 1, 3000, 0, 900);
}
// Gravity: Analog Soil Moisture Sensor
// Soil Moisture
void isSoilMoisture(){
// SDataSM => 0~900 Soil Moisture
SDataSM = map( SensorSM, 1, 3000, 0, 900);
}
// Gravity: Analog Soil Moisture Sensor
// Soil Moisture
void isSoilMoisture(){
// SDataSM => 0~900 Soil Moisture
SDataSM = map( SensorSM, 1, 3000, 0, 900);
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// EEPROM Size
EEPROM.begin(EEPROM_SIZE);
// EEPROM Unique ID
isUID();
// Give display
delay(100);
// Set up I2C bus
Wire.begin();
// Give display
delay(100);
// Setup BLE Scan
isSetupBLEScan();
// Setup DS3231 RTC
isSetupRTC();
//MicroSD Card
setupSD();
// RHT Temperature and Humidity Sensor
// Setup RTH03 Temperature and Humidity Sensor
isSetupRTH03();
// PIR Motion
// Setup PIR
isSetupPIR();
// SHARP Display Start & Clear the Display
display.begin();
// Clear Display
display.clearDisplay();
// Initialize digital pin iLED as an output
pinMode(iLED, OUTPUT);
// Outputting high, the LED turns on
digitalWrite(iLED, HIGH);
// Initialize the LED Green
pinMode(iLEDGreen, OUTPUT);
// iLEDGreen HIGH
digitalWrite(iLEDGreen, HIGH );
// Initialize the Switch
pinMode(iSwitch, INPUT);
// Don Luc Electronics
// Version
// EEPROM
isDisplayUID();
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// EEPROM Size
EEPROM.begin(EEPROM_SIZE);
// EEPROM Unique ID
isUID();
// Give display
delay(100);
// Set up I2C bus
Wire.begin();
// Give display
delay(100);
// Setup BLE Scan
isSetupBLEScan();
// Setup DS3231 RTC
isSetupRTC();
//MicroSD Card
setupSD();
// RHT Temperature and Humidity Sensor
// Setup RTH03 Temperature and Humidity Sensor
isSetupRTH03();
// PIR Motion
// Setup PIR
isSetupPIR();
// SHARP Display Start & Clear the Display
display.begin();
// Clear Display
display.clearDisplay();
// Initialize digital pin iLED as an output
pinMode(iLED, OUTPUT);
// Outputting high, the LED turns on
digitalWrite(iLED, HIGH);
// Initialize the LED Green
pinMode(iLEDGreen, OUTPUT);
// iLEDGreen HIGH
digitalWrite(iLEDGreen, HIGH );
// Initialize the Switch
pinMode(iSwitch, INPUT);
// Don Luc Electronics
// Version
// EEPROM
isDisplayUID();
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// EEPROM Size
EEPROM.begin(EEPROM_SIZE);
// EEPROM Unique ID
isUID();
// Give display
delay(100);
// Set up I2C bus
Wire.begin();
// Give display
delay(100);
// Setup BLE Scan
isSetupBLEScan();
// Setup DS3231 RTC
isSetupRTC();
//MicroSD Card
setupSD();
// RHT Temperature and Humidity Sensor
// Setup RTH03 Temperature and Humidity Sensor
isSetupRTH03();
// PIR Motion
// Setup PIR
isSetupPIR();
// SHARP Display Start & Clear the Display
display.begin();
// Clear Display
display.clearDisplay();
// Initialize digital pin iLED as an output
pinMode(iLED, OUTPUT);
// Outputting high, the LED turns on
digitalWrite(iLED, HIGH);
// Initialize the LED Green
pinMode(iLEDGreen, OUTPUT);
// iLEDGreen HIGH
digitalWrite(iLEDGreen, HIGH );
// Initialize the Switch
pinMode(iSwitch, INPUT);
// Don Luc Electronics
// Version
// EEPROM
isDisplayUID();
// Delay 5 Second
delay( 5000 );
}
——
People can contact us: https://www.donluc.com/?page_id=1927
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Don Luc
Project #28 – Sensors – PIR Motion Sensor – Mk13
Video Player
00:00
00:00
——
#DonLucElectronics #DonLuc #Sensors #PIR #Adafruit #SparkFun #Pololu #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
——
——
——
——
PIR Motion Sensor (JST)
This is a simple to use motion sensor. Power it up and wait 1-2 seconds for the sensor to get a snapshot of the still room. If anything moves after that period, the “Alarm” pin will go low. This unit works great from 5 to 12 Volt. The alarm pin is an open collector meaning you will need a pull up resistor on the alarm pin. The open drain setup allows multiple motion sensors to be connected on a single input pin. If any of the motion sensors go off, the input pin will be pulled low.
At their most fundamental level, PIR sensor’s are infrared-sensitive light detectors. By monitoring light in the infrared spectrum, PIR sensors can sense subtle changes in temperature across the area they’re viewing. When a human or some other object comes into the PIR’s field-of-view, the radiation pattern changes, and the PIR interprets that change as movement. All that’s left for us to connect is three pins: power, ground, and the output signal.
DL2401Mk02
1 x SparkFun Thing Plus – ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x PIR Motion Sensor
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch – SPST
1 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x 1 x Lithium Ion Battery – 1000mAh
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
SparkFun Thing Plus – ESP32 WROOM
LED – LED_BUILTIN
SDA – Digital 23
SCL – Digital 22
SW1 – Digital 21
PIR – Digital 14
VIN – +3.3V
VIN – +5V
GND – GND
——
DL2401Mk01p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - PIR Motion Sensor - Mk13
28-13
DL2401Mk01p.ino
1 x SparkFun Thing Plus - ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x PIR Motion Sensor
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch - SPST
1 x Resistor 10K Ohm
1 x Lithium Ion Battery - 1000mAh
1 x CR1220 3V Lithium Coin Cell Battery
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// Bluetooth LE keyboard
#include <BleKeyboard.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Serial Peripheral Interface
#include <SPI.h>
// DS3231 Precision RTC
#include <RTClib.h>
// Bluetooth LE Keyboard
BleKeyboard bleKeyboard;
String sKeyboard = "";
// Send Size
byte sendSize = 0;
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// PIR Motion
// Motion detector
const int iMotion = 14;
// Proximity
int proximity = LOW;
String Det = "";
// The number of the Rocker Switch pin
int iSwitch = 21;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-13";
void loop() {
// Date and Time RTC
isRTC ();
// isPIR Motion
isPIR();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
// Bluetooth LE Keyboard
isBluetooth();
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - PIR Motion Sensor - Mk13
28-13
DL2401Mk01p.ino
1 x SparkFun Thing Plus - ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x PIR Motion Sensor
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch - SPST
1 x Resistor 10K Ohm
1 x Lithium Ion Battery - 1000mAh
1 x CR1220 3V Lithium Coin Cell Battery
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// Bluetooth LE keyboard
#include <BleKeyboard.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Serial Peripheral Interface
#include <SPI.h>
// DS3231 Precision RTC
#include <RTClib.h>
// Bluetooth LE Keyboard
BleKeyboard bleKeyboard;
String sKeyboard = "";
// Send Size
byte sendSize = 0;
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// PIR Motion
// Motion detector
const int iMotion = 14;
// Proximity
int proximity = LOW;
String Det = "";
// The number of the Rocker Switch pin
int iSwitch = 21;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-13";
void loop() {
// Date and Time RTC
isRTC ();
// isPIR Motion
isPIR();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
// Bluetooth LE Keyboard
isBluetooth();
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - PIR Motion Sensor - Mk13
28-13
DL2401Mk01p.ino
1 x SparkFun Thing Plus - ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x PIR Motion Sensor
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch - SPST
1 x Resistor 10K Ohm
1 x Lithium Ion Battery - 1000mAh
1 x CR1220 3V Lithium Coin Cell Battery
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// Bluetooth LE keyboard
#include <BleKeyboard.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Serial Peripheral Interface
#include <SPI.h>
// DS3231 Precision RTC
#include <RTClib.h>
// Bluetooth LE Keyboard
BleKeyboard bleKeyboard;
String sKeyboard = "";
// Send Size
byte sendSize = 0;
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// PIR Motion
// Motion detector
const int iMotion = 14;
// Proximity
int proximity = LOW;
String Det = "";
// The number of the Rocker Switch pin
int iSwitch = 21;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-13";
void loop() {
// Date and Time RTC
isRTC ();
// isPIR Motion
isPIR();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
// Bluetooth LE Keyboard
isBluetooth();
}
// Delay 1 Second
delay(1000);
}
getBleKeyboard.ino
// Ble Keyboard
// Bluetooth
// isBluetooth
void isBluetooth() {
// ESP32 BLE Keyboard
if(bleKeyboard.isConnected()) {
// Send Size Length
sendSize = sKeyboard.length();
// Send Size, charAt
for(byte i = 0; i < sendSize+1; i++){
// Write
bleKeyboard.write(sKeyboard.charAt(i));
delay(50);
}
bleKeyboard.write(KEY_RETURN);
}
}
// Ble Keyboard
// Bluetooth
// isBluetooth
void isBluetooth() {
// ESP32 BLE Keyboard
if(bleKeyboard.isConnected()) {
// Send Size Length
sendSize = sKeyboard.length();
// Send Size, charAt
for(byte i = 0; i < sendSize+1; i++){
// Write
bleKeyboard.write(sKeyboard.charAt(i));
delay(50);
}
bleKeyboard.write(KEY_RETURN);
}
}
// Ble Keyboard
// Bluetooth
// isBluetooth
void isBluetooth() {
// ESP32 BLE Keyboard
if(bleKeyboard.isConnected()) {
// Send Size Length
sendSize = sKeyboard.length();
// Send Size, charAt
for(byte i = 0; i < sendSize+1; i++){
// Write
bleKeyboard.write(sKeyboard.charAt(i));
delay(50);
}
bleKeyboard.write(KEY_RETURN);
}
}
getPIR.ino
// PIR Motion
// Setup PIR
void setupPIR() {
// Setup PIR Montion
pinMode(iMotion, INPUT_PULLUP);
}
// isPIR Motion
void isPIR() {
// Proximity
proximity = digitalRead(iMotion);
if (proximity == LOW)
{
// PIR Motion Sensor's LOW, Motion is detected
Det = "Motion Yes";
}
else
{
// PIR Motion Sensor's HIGH
Det = "No";
}
sKeyboard = sKeyboard + String(Det) + "|*";
}
// PIR Motion
// Setup PIR
void setupPIR() {
// Setup PIR Montion
pinMode(iMotion, INPUT_PULLUP);
}
// isPIR Motion
void isPIR() {
// Proximity
proximity = digitalRead(iMotion);
if (proximity == LOW)
{
// PIR Motion Sensor's LOW, Motion is detected
Det = "Motion Yes";
}
else
{
// PIR Motion Sensor's HIGH
Det = "No";
}
sKeyboard = sKeyboard + String(Det) + "|*";
}
// PIR Motion
// Setup PIR
void setupPIR() {
// Setup PIR Montion
pinMode(iMotion, INPUT_PULLUP);
}
// isPIR Motion
void isPIR() {
// Proximity
proximity = digitalRead(iMotion);
if (proximity == LOW)
{
// PIR Motion Sensor's LOW, Motion is detected
Det = "Motion Yes";
}
else
{
// PIR Motion Sensor's HIGH
Det = "No";
}
sKeyboard = sKeyboard + String(Det) + "|*";
}
getRTC.ino
// Date & Time
// DS3231 Precision RTC
void isSetupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// bleKeyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC)
+ "|" + String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void isSetupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// bleKeyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC)
+ "|" + String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void isSetupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// bleKeyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC)
+ "|" + String(timeRTC) + "|";
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Bluetooth LE keyboard
bleKeyboard.begin();
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
isSetupRTC();
// Give display time to power on
delay(100);
// PIR Motion
// Setup PIR
setupPIR();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Bluetooth LE keyboard
bleKeyboard.begin();
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
isSetupRTC();
// Give display time to power on
delay(100);
// PIR Motion
// Setup PIR
setupPIR();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Bluetooth LE keyboard
bleKeyboard.begin();
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
isSetupRTC();
// Give display time to power on
delay(100);
// PIR Motion
// Setup PIR
setupPIR();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
——
People can contact us: https://www.donluc.com/?page_id=1927
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Don Luc
Project #8: Servo – Moteino R2 (RFM12B) – Mk02
Video Player
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00:00
——
#DonLucElectronics #DonLuc #Servo #Moteino #Transceiver #RadioFrequency #Pololu #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
——
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——
——
Moteino
Moteino began as a low power wireless Arduino compatible development platform based on the popular ATmega328p chip used in the Arduino UNO. There are now several Moteino development boards including MoteinoMEGA based on the Atmega1284P and MoteinoM0 based on the SAMD21G18 Cortex M0+. For programming you will need an external FTDI-Adapter to load sketches, the advantages being lower cost, smaller size.
Servo Motor
A servo motor is a rotary actuator or linear actuator that allows for precise control of angular or linear position, velocity and acceleration. It consists of a suitable motor coupled to a sensor for position feedback. It also requires a relatively sophisticated controller, often a dedicated module designed specifically for use with servo motors.
Servo motors have been around for a long time and are utilized in many applications. They are small in size but pack a big punch and are very energy-efficient. These features allow them to be used to operate remote-controlled or radio-controlled toy cars, robots and airplanes. Servo motors are also used in industrial applications, robotics, in-line manufacturing, pharmaceutics and food services.
Pololu Adjustable Boost Regulator 2.5-9.5 Volt
This powerful, adjustable boost regulator can generate an output voltage as high as 9.5 Volt from an input voltage as low as 1.5 Volt, all in a compact. A trimmer potentiometer lets you set the boost regulator’s output voltage to a value between 2.5 and 9.5 Volt.
DL2310Mk03
2 x Moteino R2 (Transceiver RFM12B)
1 x Pololu Adjustable Boost Regulator 2.5-9.5V
2 x Lithium Ion Battery – 1Ah
1 x Sub-Micro Servo 3.7g
1 x LED Green
1 x Tactile Button
1 x Resistor 10K Ohm
1 x SparkFun FTDI Basic Breakout – 5V
1 x SparkFun Cerberus USB Cable
Moteino R2 (Send)
TR0 – Digital 2
TBI – Digital 6
LED – Digital 9
TR1 – Digital 10
TR2 – Digital 11
TR3 – Digital 12
TR4 – Digital 13
VIN – +5V
VIN – +3.3V
GND – GND
——
DL2310Mk03ps.ino
/* ***** Don Luc Electronics © *****
Software Version Information
Project #8: Servo - Radio Frequency - Mk02
6-02
Send
DL2310Mk03ps.ino
2 x Moteino R2 (Transceiver RFM12B)
1 x Pololu Adjustable Boost Regulator 2.5-9.5V
2 x Lithium Ion Battery - 1Ah
1 x Sub-Micro Servo 3.7g
1 x LED Green
1 x Tactile Button
1 x Resistor 10K Ohm
1 x SparkFun FTDI Basic Breakout - 5V
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// RFM12B Radio
#include <RFM12B.h>
// Sleep
#include <avr/sleep.h>
// You will need to initialize the radio by telling it what ID
// it has and what network it's on
// The NodeID takes values from 1-127, 0 is reserved for sending
// broadcast messages (send to all nodes)
// The Network ID takes values from 0-255
// By default the SPI-SS line used is D10 on Atmega328.
// You can change it by calling .SetCS(pin) where pin can be {8,9,10}
// Network ID used for this unit
#define NODEID 2
// The network ID we are on
#define NETWORKID 99
// The node ID we're sending to
#define GATEWAYID 1
// # of ms to wait for an ack
#define ACK_TIME 50
// Serial
#define SERIAL_BAUD 115200
// Encryption is OPTIONAL
// to enable encryption you will need to:
// - provide a 16-byte encryption KEY (same on all nodes that talk encrypted)
// - to call .Encrypt(KEY) to start encrypting
// - to stop encrypting call .Encrypt(NULL)
uint8_t KEY[] = "ABCDABCDABCDABCD";
// Wait this many ms between sending packets
int interPacketDelay = 50;
// Input
char input = 0;
// Need an instance of the RFM12B Radio Module
RFM12B radio;
// Send Size
byte sendSize = 0;
// Payload
char payload[100];
// Request ACK
bool requestACK = false;
// LED
int iLED = 9;
// The number of the Tactile Button pin
int iTButton = 6;
// Variable for reading the button status
int TButtonState = 0;
// The previous reading from the input pin
int lastTButtonState = LOW;
// The following variables are unsigned longs
// because the time, measured in
// milliseconds, will quickly become a bigger
// number than can be stored in an int.
// The last time the output pin was toggled
unsigned long lastDebounceTime = 0;
// The debounce time; increase if the output flickers
unsigned long debounceDelay = 50;
// String
String zzzzzz = "";
int iSER = 0;
// Software Version Information
String sver = "8-02";
void loop()
{
// Tactile Button
isTButton();
// is RFM12B Radio
isRFM12BRadio();
// Inter Packet Delay
delay(interPacketDelay);
}
/* ***** Don Luc Electronics © *****
Software Version Information
Project #8: Servo - Radio Frequency - Mk02
6-02
Send
DL2310Mk03ps.ino
2 x Moteino R2 (Transceiver RFM12B)
1 x Pololu Adjustable Boost Regulator 2.5-9.5V
2 x Lithium Ion Battery - 1Ah
1 x Sub-Micro Servo 3.7g
1 x LED Green
1 x Tactile Button
1 x Resistor 10K Ohm
1 x SparkFun FTDI Basic Breakout - 5V
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// RFM12B Radio
#include <RFM12B.h>
// Sleep
#include <avr/sleep.h>
// You will need to initialize the radio by telling it what ID
// it has and what network it's on
// The NodeID takes values from 1-127, 0 is reserved for sending
// broadcast messages (send to all nodes)
// The Network ID takes values from 0-255
// By default the SPI-SS line used is D10 on Atmega328.
// You can change it by calling .SetCS(pin) where pin can be {8,9,10}
// Network ID used for this unit
#define NODEID 2
// The network ID we are on
#define NETWORKID 99
// The node ID we're sending to
#define GATEWAYID 1
// # of ms to wait for an ack
#define ACK_TIME 50
// Serial
#define SERIAL_BAUD 115200
// Encryption is OPTIONAL
// to enable encryption you will need to:
// - provide a 16-byte encryption KEY (same on all nodes that talk encrypted)
// - to call .Encrypt(KEY) to start encrypting
// - to stop encrypting call .Encrypt(NULL)
uint8_t KEY[] = "ABCDABCDABCDABCD";
// Wait this many ms between sending packets
int interPacketDelay = 50;
// Input
char input = 0;
// Need an instance of the RFM12B Radio Module
RFM12B radio;
// Send Size
byte sendSize = 0;
// Payload
char payload[100];
// Request ACK
bool requestACK = false;
// LED
int iLED = 9;
// The number of the Tactile Button pin
int iTButton = 6;
// Variable for reading the button status
int TButtonState = 0;
// The previous reading from the input pin
int lastTButtonState = LOW;
// The following variables are unsigned longs
// because the time, measured in
// milliseconds, will quickly become a bigger
// number than can be stored in an int.
// The last time the output pin was toggled
unsigned long lastDebounceTime = 0;
// The debounce time; increase if the output flickers
unsigned long debounceDelay = 50;
// String
String zzzzzz = "";
int iSER = 0;
// Software Version Information
String sver = "8-02";
void loop()
{
// Tactile Button
isTButton();
// is RFM12B Radio
isRFM12BRadio();
// Inter Packet Delay
delay(interPacketDelay);
}
/* ***** Don Luc Electronics © *****
Software Version Information
Project #8: Servo - Radio Frequency - Mk02
6-02
Send
DL2310Mk03ps.ino
2 x Moteino R2 (Transceiver RFM12B)
1 x Pololu Adjustable Boost Regulator 2.5-9.5V
2 x Lithium Ion Battery - 1Ah
1 x Sub-Micro Servo 3.7g
1 x LED Green
1 x Tactile Button
1 x Resistor 10K Ohm
1 x SparkFun FTDI Basic Breakout - 5V
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// RFM12B Radio
#include <RFM12B.h>
// Sleep
#include <avr/sleep.h>
// You will need to initialize the radio by telling it what ID
// it has and what network it's on
// The NodeID takes values from 1-127, 0 is reserved for sending
// broadcast messages (send to all nodes)
// The Network ID takes values from 0-255
// By default the SPI-SS line used is D10 on Atmega328.
// You can change it by calling .SetCS(pin) where pin can be {8,9,10}
// Network ID used for this unit
#define NODEID 2
// The network ID we are on
#define NETWORKID 99
// The node ID we're sending to
#define GATEWAYID 1
// # of ms to wait for an ack
#define ACK_TIME 50
// Serial
#define SERIAL_BAUD 115200
// Encryption is OPTIONAL
// to enable encryption you will need to:
// - provide a 16-byte encryption KEY (same on all nodes that talk encrypted)
// - to call .Encrypt(KEY) to start encrypting
// - to stop encrypting call .Encrypt(NULL)
uint8_t KEY[] = "ABCDABCDABCDABCD";
// Wait this many ms between sending packets
int interPacketDelay = 50;
// Input
char input = 0;
// Need an instance of the RFM12B Radio Module
RFM12B radio;
// Send Size
byte sendSize = 0;
// Payload
char payload[100];
// Request ACK
bool requestACK = false;
// LED
int iLED = 9;
// The number of the Tactile Button pin
int iTButton = 6;
// Variable for reading the button status
int TButtonState = 0;
// The previous reading from the input pin
int lastTButtonState = LOW;
// The following variables are unsigned longs
// because the time, measured in
// milliseconds, will quickly become a bigger
// number than can be stored in an int.
// The last time the output pin was toggled
unsigned long lastDebounceTime = 0;
// The debounce time; increase if the output flickers
unsigned long debounceDelay = 50;
// String
String zzzzzz = "";
int iSER = 0;
// Software Version Information
String sver = "8-02";
void loop()
{
// Tactile Button
isTButton();
// is RFM12B Radio
isRFM12BRadio();
// Inter Packet Delay
delay(interPacketDelay);
}
getRFM12BRadio.ino
// RFM12B Radio
void isSetupRFM12BRadio(){
// RFM12B Radio
radio.Initialize(NODEID, RF12_433MHZ, NETWORKID);
// Encryption
radio.Encrypt(KEY);
// Sleep right away to save power
radio.Sleep();
// Transmitting
Serial.println("Transmitting...\n\n");
}
// is RFM12 BRadio
void isRFM12BRadio(){
// zzzzzz ""
zzzzzz = "";
// zzzzz = "<SER|" + iSER + "|*";
zzzzzz = "<SER|";
zzzzzz = zzzzzz + iSER;
zzzzzz = zzzzzz + "|*";
// sendSize Length
sendSize = zzzzzz.length();
// sendSize
payload[sendSize];
// sendSize, charAt
for(byte i = 0; i < sendSize+1; i++){
payload[i] = zzzzzz.charAt(i);
}
// payload
Serial.print(payload);
// Request ACK
requestACK = sendSize;
// Wakeup
radio.Wakeup();
// Turn the LED on HIGH
digitalWrite( iLED , HIGH);
// Send
radio.Send(GATEWAYID, payload, sendSize, requestACK);
// Request ACK
if (requestACK)
{
Serial.print(" - waiting for ACK...");
if (waitForAck()){
Serial.print("Ok!");
}
else Serial.print("nothing...");
}
// Turn the LED on LOW
digitalWrite( iLED , LOW);
// Sleep
radio.Sleep();
// Serial
Serial.println();
}
// Wait a few milliseconds for proper ACK, return true if received
static bool waitForAck(){
// Now
long now = millis();
// ACK
while (millis() - now <= ACK_TIME){
if (radio.ACKReceived(GATEWAYID)){
return true;
}
}
return false;
}
// RFM12B Radio
void isSetupRFM12BRadio(){
// RFM12B Radio
radio.Initialize(NODEID, RF12_433MHZ, NETWORKID);
// Encryption
radio.Encrypt(KEY);
// Sleep right away to save power
radio.Sleep();
// Transmitting
Serial.println("Transmitting...\n\n");
}
// is RFM12 BRadio
void isRFM12BRadio(){
// zzzzzz ""
zzzzzz = "";
// zzzzz = "<SER|" + iSER + "|*";
zzzzzz = "<SER|";
zzzzzz = zzzzzz + iSER;
zzzzzz = zzzzzz + "|*";
// sendSize Length
sendSize = zzzzzz.length();
// sendSize
payload[sendSize];
// sendSize, charAt
for(byte i = 0; i < sendSize+1; i++){
payload[i] = zzzzzz.charAt(i);
}
// payload
Serial.print(payload);
// Request ACK
requestACK = sendSize;
// Wakeup
radio.Wakeup();
// Turn the LED on HIGH
digitalWrite( iLED , HIGH);
// Send
radio.Send(GATEWAYID, payload, sendSize, requestACK);
// Request ACK
if (requestACK)
{
Serial.print(" - waiting for ACK...");
if (waitForAck()){
Serial.print("Ok!");
}
else Serial.print("nothing...");
}
// Turn the LED on LOW
digitalWrite( iLED , LOW);
// Sleep
radio.Sleep();
// Serial
Serial.println();
}
// Wait a few milliseconds for proper ACK, return true if received
static bool waitForAck(){
// Now
long now = millis();
// ACK
while (millis() - now <= ACK_TIME){
if (radio.ACKReceived(GATEWAYID)){
return true;
}
}
return false;
}
// RFM12B Radio
void isSetupRFM12BRadio(){
// RFM12B Radio
radio.Initialize(NODEID, RF12_433MHZ, NETWORKID);
// Encryption
radio.Encrypt(KEY);
// Sleep right away to save power
radio.Sleep();
// Transmitting
Serial.println("Transmitting...\n\n");
}
// is RFM12 BRadio
void isRFM12BRadio(){
// zzzzzz ""
zzzzzz = "";
// zzzzz = "<SER|" + iSER + "|*";
zzzzzz = "<SER|";
zzzzzz = zzzzzz + iSER;
zzzzzz = zzzzzz + "|*";
// sendSize Length
sendSize = zzzzzz.length();
// sendSize
payload[sendSize];
// sendSize, charAt
for(byte i = 0; i < sendSize+1; i++){
payload[i] = zzzzzz.charAt(i);
}
// payload
Serial.print(payload);
// Request ACK
requestACK = sendSize;
// Wakeup
radio.Wakeup();
// Turn the LED on HIGH
digitalWrite( iLED , HIGH);
// Send
radio.Send(GATEWAYID, payload, sendSize, requestACK);
// Request ACK
if (requestACK)
{
Serial.print(" - waiting for ACK...");
if (waitForAck()){
Serial.print("Ok!");
}
else Serial.print("nothing...");
}
// Turn the LED on LOW
digitalWrite( iLED , LOW);
// Sleep
radio.Sleep();
// Serial
Serial.println();
}
// Wait a few milliseconds for proper ACK, return true if received
static bool waitForAck(){
// Now
long now = millis();
// ACK
while (millis() - now <= ACK_TIME){
if (radio.ACKReceived(GATEWAYID)){
return true;
}
}
return false;
}
getTButton.ino
// Tactile Button
void isTButton(){
// Read the state of the Button value:
int reading = digitalRead(iTButton);
// Check to see if you just pressed the TButton
// (i.e. the input went from LOW to HIGH), and you've waited long enough
// since the last press to ignore any noise:
// If the TButton changed, due to noise or pressing:
if (reading != lastTButtonState) {
// Reset the debouncing timer
lastDebounceTime = millis();
}
if ((millis() - lastDebounceTime) > debounceDelay) {
// Whatever the reading is at, it's been there for
// longer than the debounce
// delay, so take it as the actual current state:
// if the button state has changed:
if (reading != TButtonState) {
TButtonState = reading;
// Check if the TButton is pressed. If it is, the TButtonState is HIGH:
if (TButtonState == HIGH) {
iSER = 1;
} else {
iSER = 0;
}
}
}
// Save the reading. Next time through the loop,
// it'll be the lastTButtonState:
lastTButtonState = reading;
}
// Tactile Button
void isTButton(){
// Read the state of the Button value:
int reading = digitalRead(iTButton);
// Check to see if you just pressed the TButton
// (i.e. the input went from LOW to HIGH), and you've waited long enough
// since the last press to ignore any noise:
// If the TButton changed, due to noise or pressing:
if (reading != lastTButtonState) {
// Reset the debouncing timer
lastDebounceTime = millis();
}
if ((millis() - lastDebounceTime) > debounceDelay) {
// Whatever the reading is at, it's been there for
// longer than the debounce
// delay, so take it as the actual current state:
// if the button state has changed:
if (reading != TButtonState) {
TButtonState = reading;
// Check if the TButton is pressed. If it is, the TButtonState is HIGH:
if (TButtonState == HIGH) {
iSER = 1;
} else {
iSER = 0;
}
}
}
// Save the reading. Next time through the loop,
// it'll be the lastTButtonState:
lastTButtonState = reading;
}
// Tactile Button
void isTButton(){
// Read the state of the Button value:
int reading = digitalRead(iTButton);
// Check to see if you just pressed the TButton
// (i.e. the input went from LOW to HIGH), and you've waited long enough
// since the last press to ignore any noise:
// If the TButton changed, due to noise or pressing:
if (reading != lastTButtonState) {
// Reset the debouncing timer
lastDebounceTime = millis();
}
if ((millis() - lastDebounceTime) > debounceDelay) {
// Whatever the reading is at, it's been there for
// longer than the debounce
// delay, so take it as the actual current state:
// if the button state has changed:
if (reading != TButtonState) {
TButtonState = reading;
// Check if the TButton is pressed. If it is, the TButtonState is HIGH:
if (TButtonState == HIGH) {
iSER = 1;
} else {
iSER = 0;
}
}
}
// Save the reading. Next time through the loop,
// it'll be the lastTButtonState:
lastTButtonState = reading;
}
setup.ino
// Setup
void setup(){
// Serial
Serial.begin(SERIAL_BAUD);
// LED
pinMode( iLED , OUTPUT);
// Initialize the Button pin as an input
pinMode(iTButton, INPUT);
// Setup RFM12B Radio
isSetupRFM12BRadio();
}
// Setup
void setup(){
// Serial
Serial.begin(SERIAL_BAUD);
// LED
pinMode( iLED , OUTPUT);
// Initialize the Button pin as an input
pinMode(iTButton, INPUT);
// Setup RFM12B Radio
isSetupRFM12BRadio();
}
// Setup
void setup(){
// Serial
Serial.begin(SERIAL_BAUD);
// LED
pinMode( iLED , OUTPUT);
// Initialize the Button pin as an input
pinMode(iTButton, INPUT);
// Setup RFM12B Radio
isSetupRFM12BRadio();
}
Moteino R2 (Receive)
TR0 – Digital 2
LED – Digital 9
TR1 – Digital 10
TR2 – Digital 11
TR3 – Digital 12
TR4 – Digital 13
VIN – +5V
VIN – +3.3V
GND – GND
—
DL2310Mk03Mkpr.ino
/* ***** Don Luc Electronics © *****
Software Version Information
Project #8: Servo - Radio Frequency - Mk02
6-02
Receive
DL2310Mk03pr.ino
2 x Moteino R2 (RFM12B)
1 x Pololu Adjustable Boost Regulator 2.5-9.5V
2 x Lithium Ion Battery - 1Ah
1 x Sub-Micro Servo 3.7g
1 x LED Green
1 x Tactile Button
1 x Resistor 10K Ohm
1 x SparkFun FTDI Basic Breakout - 5V
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// RFM12B Radio
#include <RFM12B.h>
// Servo
#include <Servo.h>
// You will need to initialize the radio by telling it what ID
// it has and what network it's on
// The NodeID takes values from 1-127, 0 is reserved for sending
// broadcast messages (send to all nodes)
// The Network ID takes values from 0-255
// By default the SPI-SS line used is D10 on Atmega328.
// You can change it by calling .SetCS(pin) where pin can be {8,9,10}
// Network ID used for this unit
#define NODEID 1
// The network ID we are on
#define NETWORKID 99
// Serial
#define SERIAL_BAUD 115200
// Encryption is OPTIONAL
// to enable encryption you will need to:
// - provide a 16-byte encryption KEY (same on all nodes that talk encrypted)
// - to call .Encrypt(KEY) to start encrypting
// - to stop encrypting call .Encrypt(NULL)
uint8_t KEY[] = "ABCDABCDABCDABCD";
// Need an instance of the RFM12B Radio Module
RFM12B radio;
// Message
String msg = "";
// Servo
int iSER = 0;
String sSER = "";
int firstClosingBracket = 0;
// LED
int iLED = 9;
int iLEDG = 7;
// Servo control
Servo serv;
const int pinServo = 6;
// Software Version Information
String sver = "8-02";
void loop() {
// is RFM12B Radio
isRFM12BRadio();
}
/* ***** Don Luc Electronics © *****
Software Version Information
Project #8: Servo - Radio Frequency - Mk02
6-02
Receive
DL2310Mk03pr.ino
2 x Moteino R2 (RFM12B)
1 x Pololu Adjustable Boost Regulator 2.5-9.5V
2 x Lithium Ion Battery - 1Ah
1 x Sub-Micro Servo 3.7g
1 x LED Green
1 x Tactile Button
1 x Resistor 10K Ohm
1 x SparkFun FTDI Basic Breakout - 5V
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// RFM12B Radio
#include <RFM12B.h>
// Servo
#include <Servo.h>
// You will need to initialize the radio by telling it what ID
// it has and what network it's on
// The NodeID takes values from 1-127, 0 is reserved for sending
// broadcast messages (send to all nodes)
// The Network ID takes values from 0-255
// By default the SPI-SS line used is D10 on Atmega328.
// You can change it by calling .SetCS(pin) where pin can be {8,9,10}
// Network ID used for this unit
#define NODEID 1
// The network ID we are on
#define NETWORKID 99
// Serial
#define SERIAL_BAUD 115200
// Encryption is OPTIONAL
// to enable encryption you will need to:
// - provide a 16-byte encryption KEY (same on all nodes that talk encrypted)
// - to call .Encrypt(KEY) to start encrypting
// - to stop encrypting call .Encrypt(NULL)
uint8_t KEY[] = "ABCDABCDABCDABCD";
// Need an instance of the RFM12B Radio Module
RFM12B radio;
// Message
String msg = "";
// Servo
int iSER = 0;
String sSER = "";
int firstClosingBracket = 0;
// LED
int iLED = 9;
int iLEDG = 7;
// Servo control
Servo serv;
const int pinServo = 6;
// Software Version Information
String sver = "8-02";
void loop() {
// is RFM12B Radio
isRFM12BRadio();
}
/* ***** Don Luc Electronics © *****
Software Version Information
Project #8: Servo - Radio Frequency - Mk02
6-02
Receive
DL2310Mk03pr.ino
2 x Moteino R2 (RFM12B)
1 x Pololu Adjustable Boost Regulator 2.5-9.5V
2 x Lithium Ion Battery - 1Ah
1 x Sub-Micro Servo 3.7g
1 x LED Green
1 x Tactile Button
1 x Resistor 10K Ohm
1 x SparkFun FTDI Basic Breakout - 5V
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// RFM12B Radio
#include <RFM12B.h>
// Servo
#include <Servo.h>
// You will need to initialize the radio by telling it what ID
// it has and what network it's on
// The NodeID takes values from 1-127, 0 is reserved for sending
// broadcast messages (send to all nodes)
// The Network ID takes values from 0-255
// By default the SPI-SS line used is D10 on Atmega328.
// You can change it by calling .SetCS(pin) where pin can be {8,9,10}
// Network ID used for this unit
#define NODEID 1
// The network ID we are on
#define NETWORKID 99
// Serial
#define SERIAL_BAUD 115200
// Encryption is OPTIONAL
// to enable encryption you will need to:
// - provide a 16-byte encryption KEY (same on all nodes that talk encrypted)
// - to call .Encrypt(KEY) to start encrypting
// - to stop encrypting call .Encrypt(NULL)
uint8_t KEY[] = "ABCDABCDABCDABCD";
// Need an instance of the RFM12B Radio Module
RFM12B radio;
// Message
String msg = "";
// Servo
int iSER = 0;
String sSER = "";
int firstClosingBracket = 0;
// LED
int iLED = 9;
int iLEDG = 7;
// Servo control
Servo serv;
const int pinServo = 6;
// Software Version Information
String sver = "8-02";
void loop() {
// is RFM12B Radio
isRFM12BRadio();
}
getRFM12BRadio.ino
// RFM12B Radio
void isSetupRFM12BRadio()
{
// RFM12B Radio
radio.Initialize(NODEID, RF12_433MHZ, NETWORKID);
// Encryption
radio.Encrypt(KEY);
// Transmitting
Serial.println("Listening...");
}
// is RFM12 BRadio
void isRFM12BRadio()
{
// Receive
if (radio.ReceiveComplete())
{
// CRC Pass
if (radio.CRCPass())
{
// Serial
Serial.print('[');
Serial.print(radio.GetSender());
Serial.print("] ");
// Message
msg = "";
// Can also use radio.GetDataLen() if you don't like pointers
for (byte i = 0; i < *radio.DataLen; i++)
{
Serial.print((char)radio.Data[i]);
msg = msg + (char)radio.Data[i];
}
// Turn the LED on HIGH
digitalWrite( iLED , HIGH);
// Servo
isServo();
// ACK Requested
if (radio.ACKRequested())
{
// Send ACK
radio.SendACK();
Serial.print(" - ACK Sent");
}
// Turn the LED on LOW
digitalWrite( iLED , LOW);
}
else
{
// BAD-CRC
Serial.print("BAD-CRC");
}
// Serial
Serial.println();
}
}
// RFM12B Radio
void isSetupRFM12BRadio()
{
// RFM12B Radio
radio.Initialize(NODEID, RF12_433MHZ, NETWORKID);
// Encryption
radio.Encrypt(KEY);
// Transmitting
Serial.println("Listening...");
}
// is RFM12 BRadio
void isRFM12BRadio()
{
// Receive
if (radio.ReceiveComplete())
{
// CRC Pass
if (radio.CRCPass())
{
// Serial
Serial.print('[');
Serial.print(radio.GetSender());
Serial.print("] ");
// Message
msg = "";
// Can also use radio.GetDataLen() if you don't like pointers
for (byte i = 0; i < *radio.DataLen; i++)
{
Serial.print((char)radio.Data[i]);
msg = msg + (char)radio.Data[i];
}
// Turn the LED on HIGH
digitalWrite( iLED , HIGH);
// Servo
isServo();
// ACK Requested
if (radio.ACKRequested())
{
// Send ACK
radio.SendACK();
Serial.print(" - ACK Sent");
}
// Turn the LED on LOW
digitalWrite( iLED , LOW);
}
else
{
// BAD-CRC
Serial.print("BAD-CRC");
}
// Serial
Serial.println();
}
}
// RFM12B Radio
void isSetupRFM12BRadio()
{
// RFM12B Radio
radio.Initialize(NODEID, RF12_433MHZ, NETWORKID);
// Encryption
radio.Encrypt(KEY);
// Transmitting
Serial.println("Listening...");
}
// is RFM12 BRadio
void isRFM12BRadio()
{
// Receive
if (radio.ReceiveComplete())
{
// CRC Pass
if (radio.CRCPass())
{
// Serial
Serial.print('[');
Serial.print(radio.GetSender());
Serial.print("] ");
// Message
msg = "";
// Can also use radio.GetDataLen() if you don't like pointers
for (byte i = 0; i < *radio.DataLen; i++)
{
Serial.print((char)radio.Data[i]);
msg = msg + (char)radio.Data[i];
}
// Turn the LED on HIGH
digitalWrite( iLED , HIGH);
// Servo
isServo();
// ACK Requested
if (radio.ACKRequested())
{
// Send ACK
radio.SendACK();
Serial.print(" - ACK Sent");
}
// Turn the LED on LOW
digitalWrite( iLED , LOW);
}
else
{
// BAD-CRC
Serial.print("BAD-CRC");
}
// Serial
Serial.println();
}
}
getServo.ino
// Servo
void isServo(){
// Message
//Serial.println( msg );
// msg = "<SER|0|*";
firstClosingBracket = 0;
// "<SER|"
firstClosingBracket = msg.indexOf('|');
//Serial.println( msg );
msg.remove(0, 5);
//Serial.println( msg );
// Servo
firstClosingBracket = msg.indexOf('|');
sSER = msg;
sSER.remove(firstClosingBracket);
//Serial.println( sSER );
iSER = sSER.toInt();
//Serial.println( iSER );
int x = iSER;
if (x == 1) {
digitalWrite(iLEDG, HIGH);
// Set servo to unlock
serv.write( 0 );
delay(15);
} else {
digitalWrite(iLEDG, LOW);
// Set servo to lock
serv.write( 90 );
delay(15);
}
}
// Servo
void isServo(){
// Message
//Serial.println( msg );
// msg = "<SER|0|*";
firstClosingBracket = 0;
// "<SER|"
firstClosingBracket = msg.indexOf('|');
//Serial.println( msg );
msg.remove(0, 5);
//Serial.println( msg );
// Servo
firstClosingBracket = msg.indexOf('|');
sSER = msg;
sSER.remove(firstClosingBracket);
//Serial.println( sSER );
iSER = sSER.toInt();
//Serial.println( iSER );
int x = iSER;
if (x == 1) {
digitalWrite(iLEDG, HIGH);
// Set servo to unlock
serv.write( 0 );
delay(15);
} else {
digitalWrite(iLEDG, LOW);
// Set servo to lock
serv.write( 90 );
delay(15);
}
}
// Servo
void isServo(){
// Message
//Serial.println( msg );
// msg = "<SER|0|*";
firstClosingBracket = 0;
// "<SER|"
firstClosingBracket = msg.indexOf('|');
//Serial.println( msg );
msg.remove(0, 5);
//Serial.println( msg );
// Servo
firstClosingBracket = msg.indexOf('|');
sSER = msg;
sSER.remove(firstClosingBracket);
//Serial.println( sSER );
iSER = sSER.toInt();
//Serial.println( iSER );
int x = iSER;
if (x == 1) {
digitalWrite(iLEDG, HIGH);
// Set servo to unlock
serv.write( 0 );
delay(15);
} else {
digitalWrite(iLEDG, LOW);
// Set servo to lock
serv.write( 90 );
delay(15);
}
}
setup.ino
// Setup
void setup()
{
// Serial
Serial.begin(SERIAL_BAUD);
// LED
pinMode( iLED , OUTPUT);
pinMode( iLEDG , OUTPUT);
// Attach Servo
serv.attach( pinServo );
// RFM12B Radio
isSetupRFM12BRadio();
}
// Setup
void setup()
{
// Serial
Serial.begin(SERIAL_BAUD);
// LED
pinMode( iLED , OUTPUT);
pinMode( iLEDG , OUTPUT);
// Attach Servo
serv.attach( pinServo );
// RFM12B Radio
isSetupRFM12BRadio();
}
// Setup
void setup()
{
// Serial
Serial.begin(SERIAL_BAUD);
// LED
pinMode( iLED , OUTPUT);
pinMode( iLEDG , OUTPUT);
// Attach Servo
serv.attach( pinServo );
// RFM12B Radio
isSetupRFM12BRadio();
}
——
People can contact us: https://www.donluc.com/?page_id=1927
Teacher, Instructor, E-Mentor, R&D and Consulting
- Programming Language
- Single-Board Microcontrollers (PIC, Arduino, Raspberry Pi, Arm, Silicon Labs, Espressif, Etc…)
- IoT
- Wireless (Radio Frequency, Bluetooth, WiFi, Etc…)
- Robotics
- Automation
- Camera and Video Capture Receiver Stationary, Wheel/Tank and Underwater Vehicle
- Unmanned Vehicles Terrestrial and Marine
- Machine Learning
- Artificial Intelligence (AI)
- RTOS
- eHealth Sensors, Biosensor, and Biometric
- Research & Development (R & D)
- Consulting
Follow Us
Luc Paquin – Curriculum Vitae – 2023
https://www.donluc.com/luc/
Web: https://www.donluc.com/
Facebook: https://www.facebook.com/neosteam.labs.9/
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Don Luc
Project #28 – Sensors – HC-SR04 – Mk12
Video Player
00:00
00:00
——
#DonLucElectronics #DonLuc #Sensors #LSM9DS1 #IMU #GPSReceiver #Adafruit #SparkFun #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
——
——
——
——
Pololu 5 Volt Step-Up Voltage Regulator U1V10F5
This tiny U1V10F5 switching step-up voltage regulator efficiently generates 5 Volt from input voltages as low as 0.5 Volt. Unlike most boost regulators, the U1V10F5 automatically switches to a linear down-regulation mode when the input voltage exceeds the output.
Ultrasonic Distance Sensor – HC-SR04 (5 Volt)
This is the HC-SR04 ultrasonic distance sensor. This economical sensor provides 2 Centimetres to 400 Centimetres of non-contact measurement functionality with a ranging accuracy that can reach up to 3 Millimetres. Each HC-SR04 module includes an ultrasonic transmitter, a receiver and a control circuit. There are only four pins that you need to worry about on the HC-SR04: VCC (Power), Trig (Trigger), Echo (Receive), and GND (Ground). This sensor has additional control circuitry that can prevent inconsistent “Bouncy” data depending on the application.
DL2310Mk01
1 x SparkFun Thing Plus – ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x GPS Receiver – GP-20U7 (56 Channel)
1 x SparkFun 9DoF IMU Breakout – LSM9DS1
1 x Ultrasonic Distance Sensor – HC-SR04 (5V)
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch – SPST
1 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x 1 x Lithium Ion Battery – 1000mAh
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
SparkFun Thing Plus – ESP32 WROOM
LED – LED_BUILTIN
SDA – Digital 23
SCL – Digital 22
SW1 – Digital 21
GPT – Digital 17
GPR – Digital 16
TRI – Digital 15
ECH – Digital 14
VIN – +3.3V
VIN – +5V
GND – GND
——
DL2310Mk01p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - HC-SR04 - Mk12
28-12
DL2310Mk01p.ino
1 x SparkFun Thing Plus - ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x GPS Receiver - GP-20U7 (56 Channel)
1 x SparkFun 9DoF IMU Breakout - LSM9DS1
1 x Ultrasonic Distance Sensor - HC-SR04 (5V)
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch - SPST
1 x Resistor 10K Ohm
1 x Lithium Ion Battery - 1000mAh
1 x CR1220 3V Lithium Coin Cell Battery
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// Bluetooth LE keyboard
#include <BleKeyboard.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Serial Peripheral Interface
#include <SPI.h>
// DS3231 Precision RTC
#include <RTClib.h>
// GPS Receiver
#include <TinyGPS++.h>
// ESP32 Hardware Serial
#include <HardwareSerial.h>
// LSM9DS1 9DOF Sensor
#include <SparkFunLSM9DS1.h>
// Bluetooth LE Keyboard
BleKeyboard bleKeyboard;
String sKeyboard = "";
// Send Size
byte sendSize = 0;
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// GPS Receiver
#define gpsRXPIN 16
// This one is unused and doesnt have a conection
#define gpsTXPIN 17
// The TinyGPS++ object
TinyGPSPlus gps;
// Latitude
float TargetLat;
// Longitude
float TargetLon;
// GPS Date, Time
// GPS Date
String TargetDat;
// GPS Time
String TargetTim;
// GPS Status
String GPSSt = "";
// ESP32 HardwareSerial
HardwareSerial tGPS(2);
// LSM9DS1 9DOF Sensor
LSM9DS1 imu;
#define PRINT_CALCULATED
// Earth's magnetic field varies by location. Add or subtract
// a declination to get a more accurate heading. Calculate
// your's here: http://www.ngdc.noaa.gov/geomag-web/#declination
// Declination (degrees) in El Centro, CA
#define DECLINATION 10.4
// Gyro
float fGyroX;
float fGyroY;
float fGyroZ;
// Accel
float fAccelX;
float fAccelY;
float fAccelZ;
// Mag
float fMagX;
float fMagY;
float fMagZ;
// Attitude
float fRoll;
float fPitch;
float fHeading;
// HC-SR04 Ultrasonic Sensor
int iTrig = 15;
int iEcho = 14;
// Stores the distance measured by the distance sensor
float distance = 0;
// The number of the Rocker Switch pin
int iSwitch = 21;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-12";
void loop() {
// Date and Time RTC
isRTC ();
// isGPS
isGPS();
// GPS Keyboard
isGPSKeyboard();
// Gyro
isGyro();
// Accel
isAccel();
// Mag
isMag();
// Attitude
isAttitude();
// HC-SR04 Ultrasonic Sensor
isHCSR04();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
// Bluetooth LE Keyboard
isBluetooth();
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - HC-SR04 - Mk12
28-12
DL2310Mk01p.ino
1 x SparkFun Thing Plus - ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x GPS Receiver - GP-20U7 (56 Channel)
1 x SparkFun 9DoF IMU Breakout - LSM9DS1
1 x Ultrasonic Distance Sensor - HC-SR04 (5V)
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch - SPST
1 x Resistor 10K Ohm
1 x Lithium Ion Battery - 1000mAh
1 x CR1220 3V Lithium Coin Cell Battery
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// Bluetooth LE keyboard
#include <BleKeyboard.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Serial Peripheral Interface
#include <SPI.h>
// DS3231 Precision RTC
#include <RTClib.h>
// GPS Receiver
#include <TinyGPS++.h>
// ESP32 Hardware Serial
#include <HardwareSerial.h>
// LSM9DS1 9DOF Sensor
#include <SparkFunLSM9DS1.h>
// Bluetooth LE Keyboard
BleKeyboard bleKeyboard;
String sKeyboard = "";
// Send Size
byte sendSize = 0;
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// GPS Receiver
#define gpsRXPIN 16
// This one is unused and doesnt have a conection
#define gpsTXPIN 17
// The TinyGPS++ object
TinyGPSPlus gps;
// Latitude
float TargetLat;
// Longitude
float TargetLon;
// GPS Date, Time
// GPS Date
String TargetDat;
// GPS Time
String TargetTim;
// GPS Status
String GPSSt = "";
// ESP32 HardwareSerial
HardwareSerial tGPS(2);
// LSM9DS1 9DOF Sensor
LSM9DS1 imu;
#define PRINT_CALCULATED
// Earth's magnetic field varies by location. Add or subtract
// a declination to get a more accurate heading. Calculate
// your's here: http://www.ngdc.noaa.gov/geomag-web/#declination
// Declination (degrees) in El Centro, CA
#define DECLINATION 10.4
// Gyro
float fGyroX;
float fGyroY;
float fGyroZ;
// Accel
float fAccelX;
float fAccelY;
float fAccelZ;
// Mag
float fMagX;
float fMagY;
float fMagZ;
// Attitude
float fRoll;
float fPitch;
float fHeading;
// HC-SR04 Ultrasonic Sensor
int iTrig = 15;
int iEcho = 14;
// Stores the distance measured by the distance sensor
float distance = 0;
// The number of the Rocker Switch pin
int iSwitch = 21;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-12";
void loop() {
// Date and Time RTC
isRTC ();
// isGPS
isGPS();
// GPS Keyboard
isGPSKeyboard();
// Gyro
isGyro();
// Accel
isAccel();
// Mag
isMag();
// Attitude
isAttitude();
// HC-SR04 Ultrasonic Sensor
isHCSR04();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
// Bluetooth LE Keyboard
isBluetooth();
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - HC-SR04 - Mk12
28-12
DL2310Mk01p.ino
1 x SparkFun Thing Plus - ESP32 WROOM
1 x DS3231 Precision RTC FeatherWing
1 x GPS Receiver - GP-20U7 (56 Channel)
1 x SparkFun 9DoF IMU Breakout - LSM9DS1
1 x Ultrasonic Distance Sensor - HC-SR04 (5V)
1 x Pololu 5V Step-Up Voltage Regulator U1V10F5
1 x Rocker Switch - SPST
1 x Resistor 10K Ohm
1 x Lithium Ion Battery - 1000mAh
1 x CR1220 3V Lithium Coin Cell Battery
1 x Terminal Block Breakout FeatherWing
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// Bluetooth LE keyboard
#include <BleKeyboard.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Serial Peripheral Interface
#include <SPI.h>
// DS3231 Precision RTC
#include <RTClib.h>
// GPS Receiver
#include <TinyGPS++.h>
// ESP32 Hardware Serial
#include <HardwareSerial.h>
// LSM9DS1 9DOF Sensor
#include <SparkFunLSM9DS1.h>
// Bluetooth LE Keyboard
BleKeyboard bleKeyboard;
String sKeyboard = "";
// Send Size
byte sendSize = 0;
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// GPS Receiver
#define gpsRXPIN 16
// This one is unused and doesnt have a conection
#define gpsTXPIN 17
// The TinyGPS++ object
TinyGPSPlus gps;
// Latitude
float TargetLat;
// Longitude
float TargetLon;
// GPS Date, Time
// GPS Date
String TargetDat;
// GPS Time
String TargetTim;
// GPS Status
String GPSSt = "";
// ESP32 HardwareSerial
HardwareSerial tGPS(2);
// LSM9DS1 9DOF Sensor
LSM9DS1 imu;
#define PRINT_CALCULATED
// Earth's magnetic field varies by location. Add or subtract
// a declination to get a more accurate heading. Calculate
// your's here: http://www.ngdc.noaa.gov/geomag-web/#declination
// Declination (degrees) in El Centro, CA
#define DECLINATION 10.4
// Gyro
float fGyroX;
float fGyroY;
float fGyroZ;
// Accel
float fAccelX;
float fAccelY;
float fAccelZ;
// Mag
float fMagX;
float fMagY;
float fMagZ;
// Attitude
float fRoll;
float fPitch;
float fHeading;
// HC-SR04 Ultrasonic Sensor
int iTrig = 15;
int iEcho = 14;
// Stores the distance measured by the distance sensor
float distance = 0;
// The number of the Rocker Switch pin
int iSwitch = 21;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-12";
void loop() {
// Date and Time RTC
isRTC ();
// isGPS
isGPS();
// GPS Keyboard
isGPSKeyboard();
// Gyro
isGyro();
// Accel
isAccel();
// Mag
isMag();
// Attitude
isAttitude();
// HC-SR04 Ultrasonic Sensor
isHCSR04();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
// Bluetooth LE Keyboard
isBluetooth();
}
// Delay 1 Second
delay(1000);
}
getBleKeyboard.ino
// Ble Keyboard
// Bluetooth
// isBluetooth
void isBluetooth() {
// ESP32 BLE Keyboard
if(bleKeyboard.isConnected()) {
// Send Size Length
sendSize = sKeyboard.length();
// Send Size, charAt
for(byte i = 0; i < sendSize+1; i++){
// Write
bleKeyboard.write(sKeyboard.charAt(i));
delay(50);
}
bleKeyboard.write(KEY_RETURN);
}
}
// Ble Keyboard
// Bluetooth
// isBluetooth
void isBluetooth() {
// ESP32 BLE Keyboard
if(bleKeyboard.isConnected()) {
// Send Size Length
sendSize = sKeyboard.length();
// Send Size, charAt
for(byte i = 0; i < sendSize+1; i++){
// Write
bleKeyboard.write(sKeyboard.charAt(i));
delay(50);
}
bleKeyboard.write(KEY_RETURN);
}
}
// Ble Keyboard
// Bluetooth
// isBluetooth
void isBluetooth() {
// ESP32 BLE Keyboard
if(bleKeyboard.isConnected()) {
// Send Size Length
sendSize = sKeyboard.length();
// Send Size, charAt
for(byte i = 0; i < sendSize+1; i++){
// Write
bleKeyboard.write(sKeyboard.charAt(i));
delay(50);
}
bleKeyboard.write(KEY_RETURN);
}
}
getGPS.ino
// GPS Receiver
// Setup GPS
void isSetupGPS() {
// Setup GPS
//tGPS.begin( 9600 );
// Setup GPS
tGPS.begin( 9600 , SERIAL_8N1 , gpsRXPIN , gpsTXPIN );
}
// isGPS
void isGPS(){
// Receives NEMA data from GPS receiver
// This sketch displays information every time a new sentence is correctly encoded
while ( tGPS.available() > 0)
if (gps.encode( tGPS.read() ))
{
// GPS Vector Pointer Target
displayInfo();
// GPS Date, Time
displayDTS();
}
if (millis() > 5000 && gps.charsProcessed() < 10)
{
while(true);
}
}
// GPS Vector Pointer Target
void displayInfo(){
// Location
if (gps.location.isValid())
{
// Latitude
TargetLat = gps.location.lat();
// Longitude
TargetLon = gps.location.lng();
// GPS Status 2
GPSSt = "Yes";
}
else
{
// GPS Status 0
GPSSt = "No";
TargetLat = 0;
TargetLon = 0;
}
}
// GPS Date, Time
void displayDTS(){
// Date
TargetDat = "";
if (gps.date.isValid())
{
// Date
// Year
TargetDat += String(gps.date.year(), DEC);
TargetDat += "/";
// Month
TargetDat += String(gps.date.month(), DEC);
TargetDat += "/";
// Day
TargetDat += String(gps.date.day(), DEC);
}
// Time
TargetTim = "";
if (gps.time.isValid())
{
// Time
// Hour
TargetTim += String(gps.time.hour(), DEC);
TargetTim += ":";
// Minute
TargetTim += String(gps.time.minute(), DEC);
TargetTim += ":";
// Secound
TargetTim += String(gps.time.second(), DEC);
}
}
// GPS Keyboard
void isGPSKeyboard(){
// GPS Keyboard
// bleKeyboard
// GPS Vector Pointer Target
sKeyboard = sKeyboard + GPSSt + "|" + String(TargetLat)
+ "|" + String(TargetLon) + "|";
// bleKeyboard
// GPS Date, Time
sKeyboard = sKeyboard + TargetDat + "|" +
TargetTim + "|";
}
// GPS Receiver
// Setup GPS
void isSetupGPS() {
// Setup GPS
//tGPS.begin( 9600 );
// Setup GPS
tGPS.begin( 9600 , SERIAL_8N1 , gpsRXPIN , gpsTXPIN );
}
// isGPS
void isGPS(){
// Receives NEMA data from GPS receiver
// This sketch displays information every time a new sentence is correctly encoded
while ( tGPS.available() > 0)
if (gps.encode( tGPS.read() ))
{
// GPS Vector Pointer Target
displayInfo();
// GPS Date, Time
displayDTS();
}
if (millis() > 5000 && gps.charsProcessed() < 10)
{
while(true);
}
}
// GPS Vector Pointer Target
void displayInfo(){
// Location
if (gps.location.isValid())
{
// Latitude
TargetLat = gps.location.lat();
// Longitude
TargetLon = gps.location.lng();
// GPS Status 2
GPSSt = "Yes";
}
else
{
// GPS Status 0
GPSSt = "No";
TargetLat = 0;
TargetLon = 0;
}
}
// GPS Date, Time
void displayDTS(){
// Date
TargetDat = "";
if (gps.date.isValid())
{
// Date
// Year
TargetDat += String(gps.date.year(), DEC);
TargetDat += "/";
// Month
TargetDat += String(gps.date.month(), DEC);
TargetDat += "/";
// Day
TargetDat += String(gps.date.day(), DEC);
}
// Time
TargetTim = "";
if (gps.time.isValid())
{
// Time
// Hour
TargetTim += String(gps.time.hour(), DEC);
TargetTim += ":";
// Minute
TargetTim += String(gps.time.minute(), DEC);
TargetTim += ":";
// Secound
TargetTim += String(gps.time.second(), DEC);
}
}
// GPS Keyboard
void isGPSKeyboard(){
// GPS Keyboard
// bleKeyboard
// GPS Vector Pointer Target
sKeyboard = sKeyboard + GPSSt + "|" + String(TargetLat)
+ "|" + String(TargetLon) + "|";
// bleKeyboard
// GPS Date, Time
sKeyboard = sKeyboard + TargetDat + "|" +
TargetTim + "|";
}
// GPS Receiver
// Setup GPS
void isSetupGPS() {
// Setup GPS
//tGPS.begin( 9600 );
// Setup GPS
tGPS.begin( 9600 , SERIAL_8N1 , gpsRXPIN , gpsTXPIN );
}
// isGPS
void isGPS(){
// Receives NEMA data from GPS receiver
// This sketch displays information every time a new sentence is correctly encoded
while ( tGPS.available() > 0)
if (gps.encode( tGPS.read() ))
{
// GPS Vector Pointer Target
displayInfo();
// GPS Date, Time
displayDTS();
}
if (millis() > 5000 && gps.charsProcessed() < 10)
{
while(true);
}
}
// GPS Vector Pointer Target
void displayInfo(){
// Location
if (gps.location.isValid())
{
// Latitude
TargetLat = gps.location.lat();
// Longitude
TargetLon = gps.location.lng();
// GPS Status 2
GPSSt = "Yes";
}
else
{
// GPS Status 0
GPSSt = "No";
TargetLat = 0;
TargetLon = 0;
}
}
// GPS Date, Time
void displayDTS(){
// Date
TargetDat = "";
if (gps.date.isValid())
{
// Date
// Year
TargetDat += String(gps.date.year(), DEC);
TargetDat += "/";
// Month
TargetDat += String(gps.date.month(), DEC);
TargetDat += "/";
// Day
TargetDat += String(gps.date.day(), DEC);
}
// Time
TargetTim = "";
if (gps.time.isValid())
{
// Time
// Hour
TargetTim += String(gps.time.hour(), DEC);
TargetTim += ":";
// Minute
TargetTim += String(gps.time.minute(), DEC);
TargetTim += ":";
// Secound
TargetTim += String(gps.time.second(), DEC);
}
}
// GPS Keyboard
void isGPSKeyboard(){
// GPS Keyboard
// bleKeyboard
// GPS Vector Pointer Target
sKeyboard = sKeyboard + GPSSt + "|" + String(TargetLat)
+ "|" + String(TargetLon) + "|";
// bleKeyboard
// GPS Date, Time
sKeyboard = sKeyboard + TargetDat + "|" +
TargetTim + "|";
}
getHC-SR04.ino
// HC-SR04 Ultrasonic Sensor
// Setup HC-SR04
void isSetupHCSR04() {
// The trigger iTrig will output pulses of electricity
pinMode(iTrig, OUTPUT);
// The echo iEcho will measure the duration of pulses coming back from the distance sensor
pinMode(iEcho, INPUT);
}
// HC-SR04
void isHCSR04() {
// Variable to store the distance measured by the sensor
distance = isDistance();
sKeyboard = sKeyboard + String(distance) + " cm|*";
}
// Distance
float isDistance() {
// Variable to store the time it takes for a ping to bounce off an object
float echoTime;
// Variable to store the distance calculated from the echo time
float calculatedDistance;
// Send out an ultrasonic pulse that's 10ms long
digitalWrite(iTrig, HIGH);
delayMicroseconds(10);
digitalWrite(iTrig, LOW);
// Use the pulseIn command to see how long it takes for the
// pulse to bounce back to the sensor
echoTime = pulseIn(iEcho, HIGH);
// Calculate the distance of the object that reflected the pulse
// (half the bounce time multiplied by the speed of sound)
// cm = 58.0
calculatedDistance = echoTime / 58.0;
// Send back the distance that was calculated
return calculatedDistance;
}
// HC-SR04 Ultrasonic Sensor
// Setup HC-SR04
void isSetupHCSR04() {
// The trigger iTrig will output pulses of electricity
pinMode(iTrig, OUTPUT);
// The echo iEcho will measure the duration of pulses coming back from the distance sensor
pinMode(iEcho, INPUT);
}
// HC-SR04
void isHCSR04() {
// Variable to store the distance measured by the sensor
distance = isDistance();
sKeyboard = sKeyboard + String(distance) + " cm|*";
}
// Distance
float isDistance() {
// Variable to store the time it takes for a ping to bounce off an object
float echoTime;
// Variable to store the distance calculated from the echo time
float calculatedDistance;
// Send out an ultrasonic pulse that's 10ms long
digitalWrite(iTrig, HIGH);
delayMicroseconds(10);
digitalWrite(iTrig, LOW);
// Use the pulseIn command to see how long it takes for the
// pulse to bounce back to the sensor
echoTime = pulseIn(iEcho, HIGH);
// Calculate the distance of the object that reflected the pulse
// (half the bounce time multiplied by the speed of sound)
// cm = 58.0
calculatedDistance = echoTime / 58.0;
// Send back the distance that was calculated
return calculatedDistance;
}
// HC-SR04 Ultrasonic Sensor
// Setup HC-SR04
void isSetupHCSR04() {
// The trigger iTrig will output pulses of electricity
pinMode(iTrig, OUTPUT);
// The echo iEcho will measure the duration of pulses coming back from the distance sensor
pinMode(iEcho, INPUT);
}
// HC-SR04
void isHCSR04() {
// Variable to store the distance measured by the sensor
distance = isDistance();
sKeyboard = sKeyboard + String(distance) + " cm|*";
}
// Distance
float isDistance() {
// Variable to store the time it takes for a ping to bounce off an object
float echoTime;
// Variable to store the distance calculated from the echo time
float calculatedDistance;
// Send out an ultrasonic pulse that's 10ms long
digitalWrite(iTrig, HIGH);
delayMicroseconds(10);
digitalWrite(iTrig, LOW);
// Use the pulseIn command to see how long it takes for the
// pulse to bounce back to the sensor
echoTime = pulseIn(iEcho, HIGH);
// Calculate the distance of the object that reflected the pulse
// (half the bounce time multiplied by the speed of sound)
// cm = 58.0
calculatedDistance = echoTime / 58.0;
// Send back the distance that was calculated
return calculatedDistance;
}
getLSM9DS1.ino
// LSM9DS1 9DOF Sensor
// Gyro
void isGyro(){
// Update the sensor values whenever new data is available
if ( imu.gyroAvailable() )
{
// To read from the gyroscope, first call the
// readGyro() function. When it exits, it'll update the
// gx, gy, and gz variables with the most current data.
imu.readGyro();
// If you want to print calculated values, you can use the
// calcGyro helper function to convert a raw ADC value to
// DPS. Give the function the value that you want to convert.
fGyroX = imu.calcGyro(imu.gx);
fGyroY = imu.calcGyro(imu.gy);
fGyroZ = imu.calcGyro(imu.gz);
// bleKeyboard
// Gyro
sKeyboard = sKeyboard + String(fGyroX) + "|" + String(fGyroY)
+ "|" + String(fGyroZ) + "|";
}
}
// Accel
void isAccel(){
// Update the sensor values whenever new data is available
if ( imu.accelAvailable() )
{
// To read from the accelerometer, first call the
// readAccel() function. When it exits, it'll update the
// ax, ay, and az variables with the most current data.
imu.readAccel();
// If you want to print calculated values, you can use the
// calcAccel helper function to convert a raw ADC value to
// g's. Give the function the value that you want to convert.
fAccelX = imu.calcAccel(imu.ax);
fAccelY = imu.calcAccel(imu.ay);
fAccelZ = imu.calcAccel(imu.az);
// bleKeyboard
// Accel
sKeyboard = sKeyboard + String(fAccelX) + "|" + String(fAccelY)
+ "|" + String(fAccelZ) + "|";
}
}
// Mag
void isMag(){
// Update the sensor values whenever new data is available
if ( imu.magAvailable() )
{
// To read from the magnetometer, first call the
// readMag() function. When it exits, it'll update the
// mx, my, and mz variables with the most current data.
imu.readMag();
// If you want to print calculated values, you can use the
// calcMag helper function to convert a raw ADC value to
// Gauss. Give the function the value that you want to convert.
fMagX = imu.calcMag(imu.mx);
fMagY = imu.calcMag(imu.my);
fMagZ = imu.calcMag(imu.mz);
// bleKeyboard
// Mag
sKeyboard = sKeyboard + String(fMagX) + "|" + String(fMagY)
+ "|" + String(fMagZ) + "|";
}
}
// Attitude
void isAttitude(){
// Attitude
// Roll
fRoll = atan2(fAccelY, fAccelZ);
// Pitch
fPitch = atan2(-fAccelX, sqrt(fAccelY * fAccelY + fAccelZ * fAccelZ));
// Heading
if (fMagY == 0) {
fHeading = (fMagX < 0) ? PI : 0;
}
else {
fHeading = atan2(fMagX, fMagY);
}
fHeading -= DECLINATION * PI / 180;
if (fHeading > PI) fHeading -= (2 * PI);
else if (fHeading < -PI) fHeading += (2 * PI);
// Convert everything from radians to degrees:
fHeading *= 180.0 / PI;
fPitch *= 180.0 / PI;
fRoll *= 180.0 / PI;
// bleKeyboard
// Attitude
sKeyboard = sKeyboard + String(fHeading) + "|" + String(fPitch)
+ "|" + String(fRoll) + "|";
}
// LSM9DS1 9DOF Sensor
// Gyro
void isGyro(){
// Update the sensor values whenever new data is available
if ( imu.gyroAvailable() )
{
// To read from the gyroscope, first call the
// readGyro() function. When it exits, it'll update the
// gx, gy, and gz variables with the most current data.
imu.readGyro();
// If you want to print calculated values, you can use the
// calcGyro helper function to convert a raw ADC value to
// DPS. Give the function the value that you want to convert.
fGyroX = imu.calcGyro(imu.gx);
fGyroY = imu.calcGyro(imu.gy);
fGyroZ = imu.calcGyro(imu.gz);
// bleKeyboard
// Gyro
sKeyboard = sKeyboard + String(fGyroX) + "|" + String(fGyroY)
+ "|" + String(fGyroZ) + "|";
}
}
// Accel
void isAccel(){
// Update the sensor values whenever new data is available
if ( imu.accelAvailable() )
{
// To read from the accelerometer, first call the
// readAccel() function. When it exits, it'll update the
// ax, ay, and az variables with the most current data.
imu.readAccel();
// If you want to print calculated values, you can use the
// calcAccel helper function to convert a raw ADC value to
// g's. Give the function the value that you want to convert.
fAccelX = imu.calcAccel(imu.ax);
fAccelY = imu.calcAccel(imu.ay);
fAccelZ = imu.calcAccel(imu.az);
// bleKeyboard
// Accel
sKeyboard = sKeyboard + String(fAccelX) + "|" + String(fAccelY)
+ "|" + String(fAccelZ) + "|";
}
}
// Mag
void isMag(){
// Update the sensor values whenever new data is available
if ( imu.magAvailable() )
{
// To read from the magnetometer, first call the
// readMag() function. When it exits, it'll update the
// mx, my, and mz variables with the most current data.
imu.readMag();
// If you want to print calculated values, you can use the
// calcMag helper function to convert a raw ADC value to
// Gauss. Give the function the value that you want to convert.
fMagX = imu.calcMag(imu.mx);
fMagY = imu.calcMag(imu.my);
fMagZ = imu.calcMag(imu.mz);
// bleKeyboard
// Mag
sKeyboard = sKeyboard + String(fMagX) + "|" + String(fMagY)
+ "|" + String(fMagZ) + "|";
}
}
// Attitude
void isAttitude(){
// Attitude
// Roll
fRoll = atan2(fAccelY, fAccelZ);
// Pitch
fPitch = atan2(-fAccelX, sqrt(fAccelY * fAccelY + fAccelZ * fAccelZ));
// Heading
if (fMagY == 0) {
fHeading = (fMagX < 0) ? PI : 0;
}
else {
fHeading = atan2(fMagX, fMagY);
}
fHeading -= DECLINATION * PI / 180;
if (fHeading > PI) fHeading -= (2 * PI);
else if (fHeading < -PI) fHeading += (2 * PI);
// Convert everything from radians to degrees:
fHeading *= 180.0 / PI;
fPitch *= 180.0 / PI;
fRoll *= 180.0 / PI;
// bleKeyboard
// Attitude
sKeyboard = sKeyboard + String(fHeading) + "|" + String(fPitch)
+ "|" + String(fRoll) + "|";
}
// LSM9DS1 9DOF Sensor
// Gyro
void isGyro(){
// Update the sensor values whenever new data is available
if ( imu.gyroAvailable() )
{
// To read from the gyroscope, first call the
// readGyro() function. When it exits, it'll update the
// gx, gy, and gz variables with the most current data.
imu.readGyro();
// If you want to print calculated values, you can use the
// calcGyro helper function to convert a raw ADC value to
// DPS. Give the function the value that you want to convert.
fGyroX = imu.calcGyro(imu.gx);
fGyroY = imu.calcGyro(imu.gy);
fGyroZ = imu.calcGyro(imu.gz);
// bleKeyboard
// Gyro
sKeyboard = sKeyboard + String(fGyroX) + "|" + String(fGyroY)
+ "|" + String(fGyroZ) + "|";
}
}
// Accel
void isAccel(){
// Update the sensor values whenever new data is available
if ( imu.accelAvailable() )
{
// To read from the accelerometer, first call the
// readAccel() function. When it exits, it'll update the
// ax, ay, and az variables with the most current data.
imu.readAccel();
// If you want to print calculated values, you can use the
// calcAccel helper function to convert a raw ADC value to
// g's. Give the function the value that you want to convert.
fAccelX = imu.calcAccel(imu.ax);
fAccelY = imu.calcAccel(imu.ay);
fAccelZ = imu.calcAccel(imu.az);
// bleKeyboard
// Accel
sKeyboard = sKeyboard + String(fAccelX) + "|" + String(fAccelY)
+ "|" + String(fAccelZ) + "|";
}
}
// Mag
void isMag(){
// Update the sensor values whenever new data is available
if ( imu.magAvailable() )
{
// To read from the magnetometer, first call the
// readMag() function. When it exits, it'll update the
// mx, my, and mz variables with the most current data.
imu.readMag();
// If you want to print calculated values, you can use the
// calcMag helper function to convert a raw ADC value to
// Gauss. Give the function the value that you want to convert.
fMagX = imu.calcMag(imu.mx);
fMagY = imu.calcMag(imu.my);
fMagZ = imu.calcMag(imu.mz);
// bleKeyboard
// Mag
sKeyboard = sKeyboard + String(fMagX) + "|" + String(fMagY)
+ "|" + String(fMagZ) + "|";
}
}
// Attitude
void isAttitude(){
// Attitude
// Roll
fRoll = atan2(fAccelY, fAccelZ);
// Pitch
fPitch = atan2(-fAccelX, sqrt(fAccelY * fAccelY + fAccelZ * fAccelZ));
// Heading
if (fMagY == 0) {
fHeading = (fMagX < 0) ? PI : 0;
}
else {
fHeading = atan2(fMagX, fMagY);
}
fHeading -= DECLINATION * PI / 180;
if (fHeading > PI) fHeading -= (2 * PI);
else if (fHeading < -PI) fHeading += (2 * PI);
// Convert everything from radians to degrees:
fHeading *= 180.0 / PI;
fPitch *= 180.0 / PI;
fRoll *= 180.0 / PI;
// bleKeyboard
// Attitude
sKeyboard = sKeyboard + String(fHeading) + "|" + String(fPitch)
+ "|" + String(fRoll) + "|";
}
getRTC.ino
// Date & Time
// DS3231 Precision RTC
void isSetupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// bleKeyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC)
+ "|" + String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void isSetupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// bleKeyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC)
+ "|" + String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void isSetupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// bleKeyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC)
+ "|" + String(timeRTC) + "|";
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Bluetooth LE keyboard
bleKeyboard.begin();
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
isSetupRTC();
// Give display time to power on
delay(100);
// GPS Receiver
// Setup GPS
isSetupGPS();
// LSM9DS1 9DOF Sensor
imu.begin();
// Setup HC-SR04
isSetupHCSR04();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Bluetooth LE keyboard
bleKeyboard.begin();
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
isSetupRTC();
// Give display time to power on
delay(100);
// GPS Receiver
// Setup GPS
isSetupGPS();
// LSM9DS1 9DOF Sensor
imu.begin();
// Setup HC-SR04
isSetupHCSR04();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Bluetooth LE keyboard
bleKeyboard.begin();
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
isSetupRTC();
// Give display time to power on
delay(100);
// GPS Receiver
// Setup GPS
isSetupGPS();
// LSM9DS1 9DOF Sensor
imu.begin();
// Setup HC-SR04
isSetupHCSR04();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
——
People can contact us: https://www.donluc.com/?page_id=1927
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Don Luc
Project #28 – Sensors – SparkFun Environmental Combo CCS811/BME280 – Mk09
Video Player
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——
#DonLucElectronics #DonLuc #Sensors #CCS811 #BME280 #TSOP85 #TMP102 #LineSensor #AlcoholGasSensor #MinIMU9 #Pololu #Adafruit #SparkFun #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
——
——
——
——
SparkFun Environmental Combo – CCS811/BME280
The SparkFun CCS811/BME280 Environmental Combo Breakout takes care of all your atmospheric-quality sensing needs with the popular CCS811 and BME280 ICs. This unique breakout provides a variety of environmental data, including barometric pressure, humidity, temperature, TVOCs and equivalent eCO2 levels.
The CCS811 is an exceedingly popular sensor, providing readings for equivalent eCO2 in the parts per million (PPM) and total volatile organic compounds in the parts per billion (PPB). The CCS811 also has a feature that allows it to fine-tune its readings if it has access to the current humidity and temperature. Luckily for us, the BME280 provides humidity, temperature and barometric pressure. This allows the sensors to work together to give us more accurate readings than they’d be able to provide on their own. We also made it easy to interface with them via I2C.
DL2309Mk03
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor – MQ-3
1 x SparkFun Line Sensor – QRE1113
1 x SparkFun Digital Temperature Sensor – TMP102
1 x SparkFun IR Receiver – TSOP85
1 x SparkFun Environmental Combo – CCS811/BME280
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch – SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
Adafruit METRO M0 Express
LED – LED_BUILTIN
SDA – Digital 20
SCL – Digital 21
IRR – Digital 11
LER – Digital 3
SW1 – Digital 2
MQ3 – Analog 0
LSB – Analog 1
ALE = Analog 3
VIN – +3.3V
VIN – +5V
GND – GND
——
DL2309Mk03p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun Environmental Combo CCS811/BME280 - Mk09
28-09
DL2309Mk03p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x SparkFun IR Receiver - TSOP85
1 x SparkFun Environmental Combo - CCS811/BME280
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// SparkFun IR Receiver - TSOP85
#include <IRremote.h>
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
#include <SparkFunBME280.h>
// SparkFun CCS811 - eCO2 & tVOC
#include <SparkFunCCS811.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// SparkFun IR Receiver - TSOP85
int RECV_PIN = 11;
IRrecv irrecv(RECV_PIN);
decode_results results;
String IRValue = "";
int iLEDRed = 3;
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
BME280 myBME280;
float BMEtempC = 0;
float BMEhumid = 0;
float BMEpressure = 0;
float BMEaltitudeM = 0;
// SparkFun CCS811 - eCO2 & tVOC
// Default I2C Address
#define CCS811_ADDR 0x5B
CCS811 myCCS811(CCS811_ADDR);
float CCS811CO2 = 0;
float CCS811TVOC = 0;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-09";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// SparkFun IR Receiver - TSOP85
isIR();
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
isBME280();
// SparkFun CCS811 - eCO2 & tVOC
isCCS811();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun Environmental Combo CCS811/BME280 - Mk09
28-09
DL2309Mk03p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x SparkFun IR Receiver - TSOP85
1 x SparkFun Environmental Combo - CCS811/BME280
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// SparkFun IR Receiver - TSOP85
#include <IRremote.h>
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
#include <SparkFunBME280.h>
// SparkFun CCS811 - eCO2 & tVOC
#include <SparkFunCCS811.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// SparkFun IR Receiver - TSOP85
int RECV_PIN = 11;
IRrecv irrecv(RECV_PIN);
decode_results results;
String IRValue = "";
int iLEDRed = 3;
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
BME280 myBME280;
float BMEtempC = 0;
float BMEhumid = 0;
float BMEpressure = 0;
float BMEaltitudeM = 0;
// SparkFun CCS811 - eCO2 & tVOC
// Default I2C Address
#define CCS811_ADDR 0x5B
CCS811 myCCS811(CCS811_ADDR);
float CCS811CO2 = 0;
float CCS811TVOC = 0;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-09";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// SparkFun IR Receiver - TSOP85
isIR();
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
isBME280();
// SparkFun CCS811 - eCO2 & tVOC
isCCS811();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun Environmental Combo CCS811/BME280 - Mk09
28-09
DL2309Mk03p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x SparkFun IR Receiver - TSOP85
1 x SparkFun Environmental Combo - CCS811/BME280
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// SparkFun IR Receiver - TSOP85
#include <IRremote.h>
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
#include <SparkFunBME280.h>
// SparkFun CCS811 - eCO2 & tVOC
#include <SparkFunCCS811.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// SparkFun IR Receiver - TSOP85
int RECV_PIN = 11;
IRrecv irrecv(RECV_PIN);
decode_results results;
String IRValue = "";
int iLEDRed = 3;
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
BME280 myBME280;
float BMEtempC = 0;
float BMEhumid = 0;
float BMEpressure = 0;
float BMEaltitudeM = 0;
// SparkFun CCS811 - eCO2 & tVOC
// Default I2C Address
#define CCS811_ADDR 0x5B
CCS811 myCCS811(CCS811_ADDR);
float CCS811CO2 = 0;
float CCS811TVOC = 0;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-09";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// SparkFun IR Receiver - TSOP85
isIR();
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
isBME280();
// SparkFun CCS811 - eCO2 & tVOC
isCCS811();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
getAccelGyro.ino
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
getBME280.ino
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
// isBME280 - Temperature, Humidity, Barometric Pressure, and Altitude
void isBME280(){
// Temperature Celsius
BMEtempC = myBME280.readTempC();
// Humidity
BMEhumid = myBME280.readFloatHumidity();
// Barometric Pressure
BMEpressure = myBME280.readFloatPressure();
// Altitude Meters
BMEaltitudeM = (myBME280.readFloatAltitudeMeters(), 2);
// Keyboard
sKeyboard = sKeyboard + String(BMEtempC) + "|" + String(BMEhumid) + "|" +
String(BMEpressure) + "|" + String(BMEaltitudeM) + "|";
}
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
// isBME280 - Temperature, Humidity, Barometric Pressure, and Altitude
void isBME280(){
// Temperature Celsius
BMEtempC = myBME280.readTempC();
// Humidity
BMEhumid = myBME280.readFloatHumidity();
// Barometric Pressure
BMEpressure = myBME280.readFloatPressure();
// Altitude Meters
BMEaltitudeM = (myBME280.readFloatAltitudeMeters(), 2);
// Keyboard
sKeyboard = sKeyboard + String(BMEtempC) + "|" + String(BMEhumid) + "|" +
String(BMEpressure) + "|" + String(BMEaltitudeM) + "|";
}
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
// isBME280 - Temperature, Humidity, Barometric Pressure, and Altitude
void isBME280(){
// Temperature Celsius
BMEtempC = myBME280.readTempC();
// Humidity
BMEhumid = myBME280.readFloatHumidity();
// Barometric Pressure
BMEpressure = myBME280.readFloatPressure();
// Altitude Meters
BMEaltitudeM = (myBME280.readFloatAltitudeMeters(), 2);
// Keyboard
sKeyboard = sKeyboard + String(BMEtempC) + "|" + String(BMEhumid) + "|" +
String(BMEpressure) + "|" + String(BMEaltitudeM) + "|";
}
getCCS811.ino
// CCS811 - eCO2 & tVOC
// isCCS811 - eCO2 & tVOC
void isCCS811(){
// This sends the temperature & humidity data to the CCS811
myCCS811.setEnvironmentalData(BMEhumid, BMEtempC);
// Calling this function updates the global tVOC and eCO2 variables
myCCS811.readAlgorithmResults();
// eCO2 Concentration
CCS811CO2 = myCCS811.getCO2();
// tVOC Concentration
CCS811TVOC = myCCS811.getTVOC();
// Keyboard
sKeyboard = sKeyboard + String(CCS811CO2) + "|" + String(CCS811TVOC) + "|*";
}
// CCS811 - eCO2 & tVOC
// isCCS811 - eCO2 & tVOC
void isCCS811(){
// This sends the temperature & humidity data to the CCS811
myCCS811.setEnvironmentalData(BMEhumid, BMEtempC);
// Calling this function updates the global tVOC and eCO2 variables
myCCS811.readAlgorithmResults();
// eCO2 Concentration
CCS811CO2 = myCCS811.getCO2();
// tVOC Concentration
CCS811TVOC = myCCS811.getTVOC();
// Keyboard
sKeyboard = sKeyboard + String(CCS811CO2) + "|" + String(CCS811TVOC) + "|*";
}
// CCS811 - eCO2 & tVOC
// isCCS811 - eCO2 & tVOC
void isCCS811(){
// This sends the temperature & humidity data to the CCS811
myCCS811.setEnvironmentalData(BMEhumid, BMEtempC);
// Calling this function updates the global tVOC and eCO2 variables
myCCS811.readAlgorithmResults();
// eCO2 Concentration
CCS811CO2 = myCCS811.getCO2();
// tVOC Concentration
CCS811TVOC = myCCS811.getTVOC();
// Keyboard
sKeyboard = sKeyboard + String(CCS811CO2) + "|" + String(CCS811TVOC) + "|*";
}
getGasSensorMQ.ino
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
getIMUMagnetometer.ino
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
getIRRemote.ino
// SparkFun IR Receiver - TSOP85
// Setup
void isSetupIR(){
// Initialize digital pin LED Red as an output
pinMode(iLEDRed, OUTPUT);
// Start the receiver
irrecv.enableIRIn();
}
//
void isIR(){
if (irrecv.decode(&results))
{
// LED Red HIGH
digitalWrite(iLEDRed, HIGH);
//Serial.print("IR RECV Code = 0x ");
//Serial.println(results.value, HEX);
IRValue = "0x ";
IRValue = IRValue + String(results.value, HEX);
// LED Red LOW
digitalWrite(iLEDRed, LOW);
// IR Resume
irrecv.resume();
}
else {
IRValue = "0";
}
// Keyboard
sKeyboard = sKeyboard + String(IRValue) + "|";
}
// SparkFun IR Receiver - TSOP85
// Setup
void isSetupIR(){
// Initialize digital pin LED Red as an output
pinMode(iLEDRed, OUTPUT);
// Start the receiver
irrecv.enableIRIn();
}
//
void isIR(){
if (irrecv.decode(&results))
{
// LED Red HIGH
digitalWrite(iLEDRed, HIGH);
//Serial.print("IR RECV Code = 0x ");
//Serial.println(results.value, HEX);
IRValue = "0x ";
IRValue = IRValue + String(results.value, HEX);
// LED Red LOW
digitalWrite(iLEDRed, LOW);
// IR Resume
irrecv.resume();
}
else {
IRValue = "0";
}
// Keyboard
sKeyboard = sKeyboard + String(IRValue) + "|";
}
// SparkFun IR Receiver - TSOP85
// Setup
void isSetupIR(){
// Initialize digital pin LED Red as an output
pinMode(iLEDRed, OUTPUT);
// Start the receiver
irrecv.enableIRIn();
}
//
void isIR(){
if (irrecv.decode(&results))
{
// LED Red HIGH
digitalWrite(iLEDRed, HIGH);
//Serial.print("IR RECV Code = 0x ");
//Serial.println(results.value, HEX);
IRValue = "0x ";
IRValue = IRValue + String(results.value, HEX);
// LED Red LOW
digitalWrite(iLEDRed, LOW);
// IR Resume
irrecv.resume();
}
else {
IRValue = "0";
}
// Keyboard
sKeyboard = sKeyboard + String(IRValue) + "|";
}
getLineSensor.ino
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
getRTC.ino
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
getTempTMP102.ino
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|";
}
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|";
}
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|";
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// SetupTSOP85
isSetupIR();
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
myBME280.begin();
// CCS811 - eCO2 & tVOC
myCCS811.begin();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// SetupTSOP85
isSetupIR();
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
myBME280.begin();
// CCS811 - eCO2 & tVOC
myCCS811.begin();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// SetupTSOP85
isSetupIR();
// SparkFun BME280 - Temperature, Humidity, Barometric Pressure, and Altitude
myBME280.begin();
// CCS811 - eCO2 & tVOC
myCCS811.begin();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
——
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Don Luc
Project #28 – Sensors – SparkFun IR Receiver TSOP85 – Mk08
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——
#DonLucElectronics #DonLuc #Sensors #TMP102 #LineSensor #AlcoholGasSensor #MinIMU9 #Pololu #Adafruit #SparkFun #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
——
——
——
——
SparkFun IR Receiver – TSOP85
This is a very small infrared receiver based on the TSOP85 receiver from Vishay. This receiver has all the filtering and 38kHz demodulation built into the unit. Simply point a IR remote at the receiver, hit a button, and you’ll see a stream of 1s and 0s out of the data pin.
DL2309Mk02
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor – MQ-3
1 x SparkFun Line Sensor – QRE1113
1 x SparkFun Digital Temperature Sensor – TMP102
1 x SparkFun IR Receiver – TSOP85
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch – SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
Adafruit METRO M0 Express
LED – LED_BUILTIN
SDA – Digital 20
SCL – Digital 21
IRR – Digital 11
LER – Digital 3
SW1 – Digital 2
MQ3 – Analog 0
LSB – Analog 1
ALE = Analog 3
VIN – +3.3V
VIN – +5V
GND – GND
——
DL2309Mk02p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun IR Receiver TSOP85 - Mk08
28-08
DL2309Mk02p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x SparkFun IR Receiver - TSOP85
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// SparkFun IR Receiver - TSOP85
#include <IRremote.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// SparkFun IR Receiver - TSOP85
int RECV_PIN = 11;
IRrecv irrecv(RECV_PIN);
decode_results results;
String IRValue = "";
int iLEDRed = 3;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-08";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// SparkFun IR Receiver - TSOP85
isIR();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun IR Receiver TSOP85 - Mk08
28-08
DL2309Mk02p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x SparkFun IR Receiver - TSOP85
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// SparkFun IR Receiver - TSOP85
#include <IRremote.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// SparkFun IR Receiver - TSOP85
int RECV_PIN = 11;
IRrecv irrecv(RECV_PIN);
decode_results results;
String IRValue = "";
int iLEDRed = 3;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-08";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// SparkFun IR Receiver - TSOP85
isIR();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun IR Receiver TSOP85 - Mk08
28-08
DL2309Mk02p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x SparkFun IR Receiver - TSOP85
1 x LED Red
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// SparkFun IR Receiver - TSOP85
#include <IRremote.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// SparkFun IR Receiver - TSOP85
int RECV_PIN = 11;
IRrecv irrecv(RECV_PIN);
decode_results results;
String IRValue = "";
int iLEDRed = 3;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-08";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// SparkFun IR Receiver - TSOP85
isIR();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
getAccelGyro.ino
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
getGasSensorMQ.ino
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
getIMUMagnetometer.ino
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
getIRRemote.ino
// SparkFun IR Receiver - TSOP85
// Setup
void isSetupIR(){
// Initialize digital pin LED Red as an output
pinMode(iLEDRed, OUTPUT);
// Start the receiver
irrecv.enableIRIn();
}
//
void isIR(){
if (irrecv.decode(&results))
{
// LED Red HIGH
digitalWrite(iLEDRed, HIGH);
//Serial.print("IR RECV Code = 0x ");
//Serial.println(results.value, HEX);
IRValue = "0x ";
IRValue = IRValue + String(results.value, HEX);
// LED Red LOW
digitalWrite(iLEDRed, LOW);
// IR Resume
irrecv.resume();
}
else {
IRValue = "0";
}
// Keyboard
sKeyboard = sKeyboard + String(IRValue) + "|*";
}
// SparkFun IR Receiver - TSOP85
// Setup
void isSetupIR(){
// Initialize digital pin LED Red as an output
pinMode(iLEDRed, OUTPUT);
// Start the receiver
irrecv.enableIRIn();
}
//
void isIR(){
if (irrecv.decode(&results))
{
// LED Red HIGH
digitalWrite(iLEDRed, HIGH);
//Serial.print("IR RECV Code = 0x ");
//Serial.println(results.value, HEX);
IRValue = "0x ";
IRValue = IRValue + String(results.value, HEX);
// LED Red LOW
digitalWrite(iLEDRed, LOW);
// IR Resume
irrecv.resume();
}
else {
IRValue = "0";
}
// Keyboard
sKeyboard = sKeyboard + String(IRValue) + "|*";
}
// SparkFun IR Receiver - TSOP85
// Setup
void isSetupIR(){
// Initialize digital pin LED Red as an output
pinMode(iLEDRed, OUTPUT);
// Start the receiver
irrecv.enableIRIn();
}
//
void isIR(){
if (irrecv.decode(&results))
{
// LED Red HIGH
digitalWrite(iLEDRed, HIGH);
//Serial.print("IR RECV Code = 0x ");
//Serial.println(results.value, HEX);
IRValue = "0x ";
IRValue = IRValue + String(results.value, HEX);
// LED Red LOW
digitalWrite(iLEDRed, LOW);
// IR Resume
irrecv.resume();
}
else {
IRValue = "0";
}
// Keyboard
sKeyboard = sKeyboard + String(IRValue) + "|*";
}
getLineSensor.ino
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
getRTC.ino
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
getTempTMP102.ino
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|";
}
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|";
}
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|";
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// SetupTSOP85
isSetupIR();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// SetupTSOP85
isSetupIR();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// SetupTSOP85
isSetupIR();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
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Don Luc
Project #28 – Sensors – Digital Temperature Sensor TMP102 – Mk07
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#DonLucElectronics #DonLuc #Sensors #TMP102 #LineSensor #AlcoholGasSensor #MinIMU9 #Pololu #Adafruit #SparkFun #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
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SparkFun Digital Temperature Sensor – TMP102
The TMP102 is an easy-to-use digital temperature sensor from Texas Instruments. The TMP102 breakout allows you to easily incorporate the digital temperature sensor into your project. While some temperature sensors use an analog voltage to represent the temperature, the TMP102 uses the I2C bus of the Arduino to communicate the temperature. Needless to say, this is a very handy sensor that doesn’t require much setup.
The TMP102 is capable of reading temperatures to a resolution of 0.0625°C, and is accurate up to 0.5°C. The breakout has built-in 4.7k Ohm pull-up resistors for I2C communications and runs from 1.4V to 3.6V. I2C communication uses an open drain signaling, so there is no need to use level shifting.
DL2309Mk01
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor – MQ-3
1 x SparkFun Line Sensor – QRE1113
1 x SparkFun Digital Temperature Sensor – TMP102
1 x ProtoScrewShield
1 x Rocker Switch – SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
Adafruit METRO M0 Express
LED – LED_BUILTIN
SDA – Digital 20
SCL – Digital 21
SW1 – Digital 2
MQ3 – Analog 0
LSB – Analog 1
ALE = Analog 3
VIN – +3.3V
VIN – +5V
GND – GND
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DL2309Mk01p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - Digital Temperature Sensor TMP102 - Mk07
28-07
DL2309Mk01p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-07";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - Digital Temperature Sensor TMP102 - Mk07
28-07
DL2309Mk01p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-07";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - Digital Temperature Sensor TMP102 - Mk07
28-07
DL2309Mk01p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x SparkFun Digital Temperature Sensor - TMP102
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// SparkFun Digital Temperature Sensor TMP102
#include <SparkFunTMP102.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// SparkFun Digital Temperature Sensor TMP102
const int ALERT_PIN = A3;
TMP102 sensor0;
float temperature;
boolean alertPinState;
boolean alertRegisterState;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-07";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// SparkFun Temperature TMP102
isTMP102();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
getAccelGyro.ino
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
getGasSensorMQ.ino
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
getIMUMagnetometer.ino
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
getLineSensor.ino
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|";
}
getRTC.ino
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
getTempTMP102.ino
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|*";
}
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|*";
}
// SparkFun Digital Temperature Sensor TMP102
// Setup TMP102
void isSetupTMP102(){
// Declare alertPin as an input
pinMode(ALERT_PIN,INPUT);
// Begin
//It will return true on success or false on failure to communicate
if(!sensor0.begin())
{
while(1);
}
// set the Conversion Rate
//0-3: 0:0.25Hz, 1:1Hz, 2:4Hz, 3:8Hz
sensor0.setConversionRate(2);
//set Extended Mode.
//0:12-bit Temperature(-55C to +128C) 1:13-bit Temperature(-55C to +150C)
sensor0.setExtendedMode(0);
// Set T_HIGH, the upper limit to trigger the alert on
// Set T_HIGH in C
sensor0.setHighTempC(29.4);
// Set T_LOW, the lower limit to shut turn off the alert
// set T_LOW in C
sensor0.setLowTempC(27.67);
}
// is TMP102
void isTMP102(){
// Turn sensor on to start temperature measurement.
// Current consumtion typically ~10uA.
sensor0.wakeup();
// read temperature data C
temperature = sensor0.readTempC();
// Check for Alert
// Read the Alert from pin
alertPinState = digitalRead(ALERT_PIN);
// Read the Alert from register
alertRegisterState = sensor0.alert();
// Place sensor in sleep mode to save power.
// Current consumtion typically <0.5uA.
sensor0.sleep();
// Keyboard
sKeyboard = sKeyboard + String(temperature) + "|" +
String(alertPinState) + "|" + String(alertRegisterState) + "|*";
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Setup TMP102
isSetupTMP102();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
——
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Don Luc
Project #28 – Sensors – SparkFun Line Sensor QRE1113 – Mk06
Video Player
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——
#DonLucElectronics #DonLuc #Sensors #LineSensor #AlcoholGasSensor #MinIMU9 #Pololu #Adafruit #SparkFun #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
——
——
——
——
SparkFun Line Sensor QRE1113 (Analog)
This version of the QRE1113 breakout board features an easy-to-use analog output, which will vary depending on the amount of IR light reflected back to the sensor. This tiny board is perfect for line sensing applications and can be used in both 3.3V and 5V systems.
The board’s QRE1113 IR reflectance sensor is comprised of two parts – an IR emitting LED and an IR sensitive phototransistor. When you apply power to the VCC and GND pins the IR LED inside the sensor will illuminate. A 100 Ohm resistor is on-board and placed in series with the LED to limit current. A 10k Ohm resistor pulls the output pin high, but when the light from the LED is reflected back onto the phototransistor the output will begin to go lower. The more IR light sensed by the phototransistor, the lower the output voltage of the breakout board.
These sensors are widely used in line following robots, white surfaces reflect much more light than black, so, when directed towards a white surface, the voltage output will be lower than that on a black surface.
DL2308Mk07
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor – MQ-3
1 x SparkFun Line Sensor – QRE1113
1 x ProtoScrewShield
1 x Rocker Switch – SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
Adafruit METRO M0 Express
LED – LED_BUILTIN
SDA – Digital 20
SCL – Digital 21
SW1 – Digital 2
MQ3 – Analog 0
LSB – Analog 1
VIN – +3.3V
VIN – +5V
GND – GND
——
DL2308Mk07p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun Line Sensor QRE1113 - Mk06
28-06
DL2308Mk07p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-06";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun Line Sensor QRE1113 - Mk06
28-06
DL2308Mk07p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-06";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - SparkFun Line Sensor QRE1113 - Mk06
28-06
DL2308Mk07p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x SparkFun Line Sensor - QRE1113
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// SparkFun Line Sensor - QRE1113 (Analog)
int iLine = A1;
int iLineSensor = 0;
// The number of the Rocker Switch pin
int iSwitch = 2;
// Variable for reading the button status
int SwitchState = 0;
// Software Version Information
String sver = "28-06";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// SparkFun Line Sensor
isLineSensor();
// Read the state of the Switch value:
SwitchState = digitalRead(iSwitch);
// Check if the button is pressed. If it is, the SwitchState is HIGH:
if (SwitchState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
getAccelGyro.ino
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
// Keyboard
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|"
+ String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|"
+ String(imuGZ) + "|";
}
getGasSensorMQ.ino
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
// Keyboard
sKeyboard = sKeyboard + String(iMQ3ppm) + "|";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
getIMUMagnetometer.ino
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
// Keyboard
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
getLineSensor.ino
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|*";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|*";
}
// Line Sensor
// isLine Sensor
void isLineSensor(){
// Line Sensor
iLineSensor = analogRead(iLine);
// Keyboard
sKeyboard = sKeyboard + String(iLineSensor) + "|*";
}
getRTC.ino
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
// Keyboard
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Initialize the Switch pin as an input
pinMode(iSwitch, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
——
People can contact us: https://www.donluc.com/?page_id=1927
Technology Experience
- Programming Language
- Single-Board Microcontrollers (PIC, Arduino, Raspberry Pi,Espressif, etc…)
- IoT
- Wireless (Radio Frequency, Bluetooth, WiFi, Etc…)
- Robotics
- Camera and Video Capture Receiver Stationary, Wheel/Tank and Underwater Vehicle
- Unmanned Vehicles Terrestrial and Marine
- Machine Learning
- RTOS
- Research & Development (R & D)
Instructor, E-Mentor, STEAM, and Arts-Based Training
- Programming Language
- IoT
- PIC Microcontrollers
- Arduino
- Raspberry Pi
- Espressif
- Robotics
Follow Us
Luc Paquin – Curriculum Vitae – 2023
https://www.donluc.com/luc/
Web: https://www.donluc.com/
Facebook: https://www.facebook.com/neosteam.labs.9/
YouTube: https://www.youtube.com/@thesass2063
Twitter: https://twitter.com/labs_steam
Pinterest: https://www.pinterest.com/NeoSteamLabs/
Instagram: https://www.instagram.com/neosteamlabs/
Don Luc
Project #28 – Sensors – Alcohol Gas Sensor MQ-3 – Mk05
Video Player
00:00
00:00
——
#DonLucElectronics #DonLuc #Sensors #AlcoholGasSensor #MinIMU9 #Pololu #Adafruit #SparkFun #Arduino #Project #Fritzing #Programming #Electronics #Microcontrollers #Consultant
——
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——
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Pololu Carrier for MQ Gas Sensors
This carrier board is designed to work with any of the MQ-series gas sensors, simplifying the interface from 6 to 3 pins—ground, power and analog voltage output—that are broken out with a 0.1″ spacing, making the board compatible with 0.1″ headers and standard breadboards and perfboards. This board has two mounting holes and provides convenient pads for mounting the gas sensor’s required sensitivity-setting resistor.
Alcohol Gas Sensor – MQ-3
This alcohol sensor is suitable for detecting alcohol concentration on your breath, just like your common breathalyzer. It has a high sensitivity and fast response time. Sensor provides an analog resistive output based on alcohol concentration.
How does this relate to the breath? It turns out that there is a standard conversion from breath alcohol content to BAC that is employed by commercial breathalyzers. Our formula for calculating BAC from the alcohol measured in the breath is:
% BAC = Breath mg/L * 0.21
DL2308Mk06
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor – MQ-3
1 x ProtoScrewShield
1 x Rocker Switch – SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
Adafruit METRO M0 Express
LED – LED_BUILTIN
SDA – Digital 20
SCL – Digital 21
SW1 – Digital 2
MQ3 – Analog 0
VIN – +3.3V
VIN – +5V
GND – GND
——
DL2308Mk06p.ino
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - Alcohol Gas Sensor MQ-3 - Mk05
28-05
DL2308Mk06p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// The number of the button pin
int iButton = 2;
// Variable for reading the button status
int buttonState = 0;
// Software Version Information
String sver = "28-05";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// Read the state of the button value:
buttonState = digitalRead(iButton);
// Check if the button is pressed. If it is, the buttonState is HIGH:
if (buttonState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - Alcohol Gas Sensor MQ-3 - Mk05
28-05
DL2308Mk06p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// The number of the button pin
int iButton = 2;
// Variable for reading the button status
int buttonState = 0;
// Software Version Information
String sver = "28-05";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// Read the state of the button value:
buttonState = digitalRead(iButton);
// Check if the button is pressed. If it is, the buttonState is HIGH:
if (buttonState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
/****** Don Luc Electronics © ******
Software Version Information
Project #28 - Sensors - Alcohol Gas Sensor MQ-3 - Mk05
28-05
DL2308Mk06p.ino
1 x Adafruit METRO M0 Express
1 x DS3231 Precision RTC FeatherWing
1 x Pololu MinIMU-9 v5 Gyro, Accelerometer, and Compass
1 x Pololu Carrier for MQ Gas Sensors
1 x Alcohol Gas Sensor - MQ-3
1 x ProtoScrewShield
1 x Rocker Switch - SPST
2 x Resistor 10K Ohm
1 x CR1220 3V Lithium Coin Cell Battery
1 x SparkFun Cerberus USB Cable
*/
// Include the Library Code
// DS3231 Precision RTC
#include <RTClib.h>
// Two Wire Interface (TWI/I2C)
#include <Wire.h>
// Keyboard
#include <Keyboard.h>
// Includes and variables for IMU integration
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
#include <LSM6.h>
// STMicroelectronics LIS3MDL Magnetometer
#include <LIS3MDL.h>
// Keyboard
String sKeyboard = "";
// DS3231 Precision RTC
RTC_DS3231 rtc;
String dateRTC = "";
String timeRTC = "";
// Pololu 9DoF IMU
// STMicroelectronics LSM6DS33 Gyroscope and Accelerometer
LSM6 imu;
// Accelerometer and Gyroscopes
// Accelerometer
int imuAX;
int imuAY;
int imuAZ;
// Gyroscopes
int imuGX;
int imuGY;
int imuGZ;
// STMicroelectronics LIS3MDL Magnetometer
LIS3MDL mag;
// Magnetometer
int magX;
int magY;
int magZ;
// Gas Sensors MQ
// Alcohol Gas Sensor - MQ-3
int iMQ3 = A0;
int iMQ3Raw = 0;
int iMQ3ppm = 0;
// The number of the button pin
int iButton = 2;
// Variable for reading the button status
int buttonState = 0;
// Software Version Information
String sver = "28-05";
void loop() {
// Date and Time RTC
isRTC ();
// Pololu Accelerometer and Gyroscopes
isIMU();
// Pololu Magnetometer
isMag();
// Gas Sensors MQ
isGasSensor();
// Read the state of the button value:
buttonState = digitalRead(iButton);
// Check if the button is pressed. If it is, the buttonState is HIGH:
if (buttonState == HIGH) {
Keyboard.println(sKeyboard);
}
// Delay 1 Second
delay(1000);
}
getAccelGyro.ino
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|" + String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|" + String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|" + String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|" + String(imuGZ) + "|";
}
// Accelerometer and Gyroscopes
// Setup IMU
void setupIMU() {
// Setup IMU
imu.init();
// Default
imu.enableDefault();
}
// Accelerometer and Gyroscopes
void isIMU() {
// Accelerometer and Gyroscopes
imu.read();
// Accelerometer x, y, z
imuAX = imu.a.x;
imuAY = imu.a.y;
imuAZ = imu.a.z;
// Gyroscopes x, y, z
imuGX = imu.g.x;
imuGY = imu.g.y;
imuGZ = imu.g.z;
sKeyboard = sKeyboard + String(imuAX) + "|" + String(imuAY) + "|" + String(imuAZ) + "|";
sKeyboard = sKeyboard + String(imuGX) + "|" + String(imuGY) + "|" + String(imuGZ) + "|";
}
getGasSensorMQ.ino
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
sKeyboard = sKeyboard + String(iMQ3ppm) + "|*";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
sKeyboard = sKeyboard + String(iMQ3ppm) + "|*";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
// Gas Sensors MQ
// Gas Sensor
void isGasSensor() {
// Read in analog value from each gas sensors
// Alcohol Gas Sensor - MQ-3
iMQ3ppm = isMQ3( iMQ3Raw );
sKeyboard = sKeyboard + String(iMQ3ppm) + "|*";
}
// Alcohol Gas Sensor - MQ-3
int isMQ3(double rawValue) {
double RvRo = rawValue;
// % BAC = breath mg/L * 0.21
double bac = RvRo * 0.21;
return bac;
}
getIMUMagnetometer.ino
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
// IMU Magnetometer
// Setup Magnetometer
void setupMag() {
// Setup Magnetometer
mag.init();
// Default
mag.enableDefault();
}
// Magnetometer
void isMag() {
// Magnetometer
mag.read();
// Magnetometer x, y, z
magX = mag.m.x;
magY = mag.m.y;
magZ = mag.m.z;
sKeyboard = sKeyboard + String(magX) + "|" + String(magY) + "|"
+ String(magZ) + "|";
}
getRTC.ino
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
// Date & Time
// DS3231 Precision RTC
void setupRTC() {
// DS3231 Precision RTC
if (! rtc.begin()) {
//Serial.println("Couldn't find RTC");
//Serial.flush();
while (1) delay(10);
}
if (rtc.lostPower()) {
//Serial.println("RTC lost power, let's set the time!");
// When time needs to be set on a new device, or after a power loss, the
// following line sets the RTC to the date & time this sketch was compiled
rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
// This line sets the RTC with an explicit date & time, for example to set
// January 21, 2014 at 3am you would call:
//rtc.adjust(DateTime(2023, 8, 10, 11, 0, 0));
}
}
// Date and Time RTC
void isRTC () {
// Date and Time
dateRTC = "";
timeRTC = "";
DateTime now = rtc.now();
// Date
dateRTC = now.year(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.month(), DEC;
dateRTC = dateRTC + "/";
dateRTC = dateRTC + now.day(), DEC;
// Time
timeRTC = now.hour(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.minute(), DEC;
timeRTC = timeRTC + ":";
timeRTC = timeRTC + now.second(), DEC;
sKeyboard = "SEN|" + sver + "|" + String(dateRTC) + "|" +
String(timeRTC) + "|";
}
setup.ino
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Initialize the button pin as an input
pinMode(iButton, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Initialize the button pin as an input
pinMode(iButton, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
// Setup
void setup()
{
// Give display time to power on
delay(100);
// Wire - Inialize I2C Hardware
Wire.begin();
// Give display time to power on
delay(100);
// Date & Time RTC
// DS3231 Precision RTC
setupRTC();
// Initialize control over the keyboard:
Keyboard.begin();
// Pololu Setup IMU
setupIMU();
// Pololu Setup Magnetometer
setupMag();
// Initialize the button pin as an input
pinMode(iButton, INPUT);
// Initialize digital pin LED_BUILTIN as an output
pinMode(LED_BUILTIN, OUTPUT);
// Turn the LED on HIGH
digitalWrite(LED_BUILTIN, HIGH);
// Delay 5 Second
delay( 5000 );
}
——
People can contact us: https://www.donluc.com/?page_id=1927
Technology Experience
- Programming Language
- Single-Board Microcontrollers (PIC, Arduino, Raspberry Pi,Espressif, etc…)
- IoT
- Wireless (Radio Frequency, Bluetooth, WiFi, Etc…)
- Robotics
- Camera and Video Capture Receiver Stationary, Wheel/Tank and Underwater Vehicle
- Unmanned Vehicles Terrestrial and Marine
- Machine Learning
- RTOS
- Research & Development (R & D)
Instructor, E-Mentor, STEAM, and Arts-Based Training
- Programming Language
- IoT
- PIC Microcontrollers
- Arduino
- Raspberry Pi
- Espressif
- Robotics
Follow Us
Luc Paquin – Curriculum Vitae – 2023
https://www.donluc.com/luc/
Web: https://www.donluc.com/
Facebook: https://www.facebook.com/neosteam.labs.9/
YouTube: https://www.youtube.com/@thesass2063
Twitter: https://twitter.com/labs_steam
Pinterest: https://www.pinterest.com/NeoSteamLabs/
Instagram: https://www.instagram.com/neosteamlabs/
Don Luc