A 100-day challenge with complete IoT projects using ESP32, ESP8266, and Raspberry Pi Pico with MicroPython, covering sensors, modules, and IoT techniques.
100 Days 100 IoT Projects is a structured learning repository that documents a 100-day journey building IoT and embedded systems projects. It provides hands-on experience with popular hardware like ESP32, ESP8266, and Raspberry Pi Pico using MicroPython, covering a wide range of sensors, modules, and IoT techniques. The project solves the problem of finding a comprehensive, practical, and progressive resource for learning IoT through daily, complete projects.
Beginners and intermediate learners interested in IoT, embedded systems, and hardware programming who want a structured, hands-on approach to mastering practical skills. It's also valuable for educators and hobbyists looking for ready-to-use project examples with detailed documentation.
Developers choose this repository because it offers a curated, progressive learning path with complete, well-documented projects for each day. Unlike scattered tutorials, it provides consistency, hardware variety, and covers both basic and advanced IoT concepts in a single resource, making it an efficient way to build practical skills.
A 100-day challenge exploring IoT and embedded systems using ESP32, ESP8266, and Raspberry Pi Pico with MicroPython. Each day covers a new sensor or module with complete code, circuit diagram, and explanation.
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Offers 100 consecutive projects with clear advancement from basic GPIO to cloud systems, ensuring consistent skill-building as highlighted in the roadmap.
Covers ESP32, ESP8266, Raspberry Pi Pico, and sensors like DHT11, MQ gas sensors, and OLEDs, providing broad hands-on experience as listed in the project table.
Includes real implementations of web servers, Blynk, ThingSpeak, and data visualization, with projects like Day 53 showing end-to-end systems with anomaly detection.
Each project has complete code, circuit diagrams, and explanations, making it accessible for newcomers, as emphasized in the beginner-friendly key features.
Relies heavily on MicroPython, which may not suit high-performance or real-time applications compared to C/C++, as admitted in the focus on learning over optimization.
Code is designed for learning, so it often lacks advanced error handling, security features, or scalability needed for production environments.
Requires acquiring multiple boards and sensors, which can be expensive and logistically challenging, as projects assume physical hardware availability.