Biomedical Project: Digital Thermometer with Atmega32 & LM35

1. Project Overview:

   • Begin with an in-depth exploration of the Block Diagram of your digital thermometer project, setting the foundation for everything that follows.

2. ATMEGA32 Basics:

   • Dive into the heart of the microcontroller with an introduction to ATMEGA32.

   • Learn about the essential Pins and Ports involved in your project.

   • Understand GPIO Registers and their crucial functions in ATMEGA32.

3. Sensor Fundamentals:

   • Gain a solid understanding of sensor sensitivity.

   • Get introduced to the LM35 Temperature Sensor and learn how to interpret its datasheet.

4. Analog to Digital Converters (ADC):

   • Explore the concept of ADCs and their importance in digital projects.

   • Learn about resolution in ADCs and how it impacts your readings.

   • Understand ADMUX and ADLAR Registers in ATMEGA32 for precise sensor data conversion.

5. Circuit Simulation with Tinkercad:

   • Move into hands-on application with circuit simulation on Tinkercad Software using Arduino, making the theory come alive.

6. Microcontroller Programming:

   • Design and simulate the logic and program for your project using Microchip Studio Software, ensuring your thermometer works as intended.

7. Final Simulation in Proteus:

   • Bring it all together by simulating the entire project on Proteus Software, confirming the functionality of your design in a virtual environment.

By the end of this course, you will have a well-rounded understanding of how to design, simulate, and implement a digital thermometer project using industry-standard tools and techniques. This course covers a broad range of topics, from microcontroller basics to advanced simulation software, making it ideal for beginners and those looking to deepen their knowledge of embedded systems and biomedical projects.