Скачать с ютуб Sim800L DHT11 Firebase || IoT Weather Monitoring with SIM800L, DHT11, Firebase, and MIT App Inventor в хорошем качестве

Sim800L DHT11 Firebase || IoT Weather Monitoring with SIM800L, DHT11, Firebase, and MIT App Inventor

Dear Viewers, If any customized project or any help required for your project, I am willing to support you (Paid Service) ========================================================================== Contact Details ################################################################## Email : [email protected] [email protected] Website : https://www.teachmesomething.co.in/ Whatsapp - https://bit.ly/3vNBEPo Contact Number - +919043392011 Instagram:   / teach_me_something_arduino   Fb Messenger :   / teachmesomething.teachmesomething   ============================================================= ============================================ Code & Circuit Diagram Program Download Link 1 - https://bit.ly/3qbvhmB Program Download Link 2 - https://rzp.io/l/15m3zlJSEt Membership for Download All programs - https://bit.ly/3rr6go6 ============================================ #sim800l #Arduino #Firebaseiotporjects Description: In this tutorial, we'll show you how to build an Internet of Things (IoT) weather monitoring system using the SIM800L module, DHT11 temperature and humidity sensor, Firebase database, and MIT App Inventor. By the end of this video, you'll be able to create a wireless weather monitoring device that sends real-time data to your smartphone through the MITP app. Join us and learn how to bring your own IoT project to life! Keywords: IoT weather monitoring, SIM800L, DHT11, Firebase, MIT App Inventor, wireless weather sensor, real-time data, IoT project tutorial, weather monitoring system. Project Report: SIM800L, DHT11, Firebase, and MIT App Inventor Integration for IoT Weather Monitoring Introduction: The purpose of this project is to create an Internet of Things (IoT) weather monitoring system using the SIM800L module, DHT11 temperature and humidity sensor, Firebase database, and MIT App Inventor. The system allows users to monitor real-time weather data remotely through a mobile app. Components Used: SIM800L GSM module: Used for connecting to the internet and sending data to Firebase. DHT11 sensor: Measures temperature and humidity levels. Arduino Uno: Controls the communication between the GSM module and the DHT11 sensor. Firebase Realtime Database: Stores and retrieves weather data. MIT App Inventor: Used to create the mobile app for data visualization. System Architecture: The SIM800L module is connected to the Arduino Uno, which is responsible for collecting data from the DHT11 sensor. The Arduino communicates with the SIM800L module using AT commands to establish an internet connection. The collected data is then sent to the Firebase Realtime Database using the Firebase API. The MIT App Inventor is used to create a mobile app that retrieves data from Firebase and displays it to the user. Implementation Steps: a. Hardware Setup: Connect the SIM800L module to the Arduino Uno according to the datasheet. Connect the DHT11 sensor to the Arduino Uno. Power up the components. b. Software Setup: Install the required libraries for the SIM800L module and DHT11 sensor in the Arduino IDE. Write the Arduino code to read data from the DHT11 sensor and send it to Firebase via the SIM800L module. Set up a Firebase project and create a Realtime Database to store the weather data. Obtain the Firebase API credentials and include them in the Arduino code for authentication. Upload the code to the Arduino Uno. c. Mobile App Development: Create a new project in the MIT App Inventor. Design the user interface of the app, including labels or graphs to display the weather data. Use the Firebase component in MIT App Inventor to retrieve data from the Firebase Realtime Database. Write the necessary blocks to fetch and display the weather data in real-time. Build the app and install it on your smartphone. Testing and Results: Power on the system and ensure all connections are secure. Launch the mobile app on your smartphone. The app should display the real-time weather data fetched from the Firebase database. Verify the accuracy of the displayed temperature and humidity readings by comparing them with a reliable source. Conclusion: This project demonstrates the integration of SIM800L, DHT11, Firebase, and MIT App Inventor to create an IoT weather monitoring system. By following the implementation steps, users can build their own wireless weather monitoring device that sends data to a mobile app. This project opens up possibilities for various applications in agriculture, home automation, and environmental monitoring. Further improvements can be made to enhance the user interface and add additional features for data analysis and historical tracking.