iot based agriculture monitoring pump on/off using arduino with Manual / Automatic | Smart Agriculture IoT Solution - IoT Sensors (Soil Moisture, Humidity, Temperature) | Smart Irrigation System | Arduino Uno | DHT11 | Humidity Sensor | Soil Moisture Sensor | Relay | GSM Based Motor Controller in Irrigation by Using Sensor's [ Soil Moisture + Tank Water Level ] | SMS Based Remote Agriculture Pump ON/OFF Control and Notification | IOT BASED SUBMERSIBLE MOTOR PUMPS ON/OFF | IoT Based Agriculture Monitoring | pH | Moisture | Light | Irrigation | Rain | Temp | Humidity | IOT Based Agriculture Monitoring and Controlling System using Arduino Uno.
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Creating an IoT-based Smart Agriculture Monitoring System using Arduino can greatly improve the efficiency and productivity of farming. In this project, we'll use Arduino, various sensors, and an IoT platform like ThingSpeak or Adafruit IO to collect data and monitor the agricultural environment remotely. Here's a step-by-step guide to help you get started:
Components Needed:
1. Arduino (e.g., Arduino Uno or Arduino Mega)
2. Sensors:
• Soil Moisture Sensor
• DHT22 or DHT11 Temperature and Humidity Sensor
• Light Sensor (LDR)
• Rainfall Sensor (optional)
3. ESP8266 Wi-Fi module or ESP32 (for IoT connectivity)
4. Relay module (for controlling irrigation systems)
5. Power supply (solar or standard power source)
6. Water pumps, valves, or actuators (for automated irrigation)
7. Enclosure for outdoor installation (to protect electronics)
8. Jumper wires, breadboard, and connectors
9. Internet connection
Project Steps:
1. Hardware Setup:
• Connect the sensors and actuators to the Arduino using jumper wires.
• Connect the ESP8266 or ESP32 to the Arduino using serial communication or I2C for data transfer.
• Make sure all connections are secure and powered properly.
2. Sensor Data Collection:
• Read data from the soil moisture sensor to monitor soil moisture levels.
• Use the DHT22/DHT11 sensor to measure temperature and humidity.
• The light sensor can be used to monitor light intensity.
• Optionally, include a rainfall sensor to measure precipitation.
3. Arduino Programming:
• Write Arduino code to read data from the sensors.
• Implement control logic for irrigation systems based on the sensor data. For example, turn on/off water pumps or open/close valves.
• Create a mechanism to send sensor data and control commands to the IoT platform via the ESP8266 or ESP32.
4. IoT Integration:
• Sign up for an IoT platform like ThingSpeak, Adafruit IO, or Ubidots.
• Obtain the necessary credentials (API keys) to connect your Arduino to the platform.
• Modify your Arduino code to send sensor data to the IoT platform periodically.
• Set up dashboards and alerts on the IoT platform to visualize and analyze the data remotely.
5. Remote Monitoring and Control:
• Access your IoT platform's dashboard or mobile app to remotely monitor the agricultural conditions.
• Implement automation rules and alerts to trigger actions (e.g., irrigation) based on specific conditions (e.g., low soil moisture).
6. Power Supply:
• Depending on your project's location, consider using solar power or a reliable power source to ensure continuous operation.
