1_Say_NO_to_ARDUINO_New_ARM_Microcontroller_Programming_and_Circuit_Building_Series[EagleConverter.com]

Chapter 1: Introduction

• Presenter: Patrick, creator of tutorial videos on microcontroller programming and circuit building.

• Series Focus: New series on ARM microcontroller programming and basic circuit building.

• IDE Used: STM32CubeIDE, an Eclipse IDE for STM32 microcontrollers.

• Reference Material: Book titled "R Microcontrollers, Programming and Circuit Building, Volume 1"; series will have multiple volumes.

• Series Structure:

  • Organized around specific applications in robotics.

  • Development process will be demonstrated while referencing the book.

  • Content will cover communication, motor control, servo control, and environmental sensing (e.g., tilt, angular velocity).

  • Possible use of CAD software for PCB design (e.g., EAGLE, KiCad).

Chapter 2: Based Chip

• Starting Points for Programming:

  • Arduino for quick projects with expandable shields.

  • Basic chip like STM32 microcontroller (ARM based) for advanced projects.

• Definition of Microcontroller:

  • Device capable of receiving input (binary data, analog voltages).

  • Inputs through ADC (Analog to Digital Converter): Converts analog voltages (0-3.3V) to digital numbers.

  • Outputs in digital form: Can control devices (e.g., turning an LED on/off).

  • Utilizes PWM (Pulse Width Modulation) for variable outputs between 0 and a reference voltage.

• Environmental Sensing:

  • Inputs can include temperature sensing, converting physical quantities to voltage.

Chapter 3: Cost Effective Circuit

• Microcontroller Versatility:

  • Present in numerous devices (smart home tech, IoT, automotive control).

  • Essential in robotics and critical applications.

• Arduino vs. Bare Chip:

  • Arduino: Excellent for quick prototypes but not ideal for production.

  • Starting from bare chip (STM32) enables a more efficient, customizable design for scalable products.

  • Gain deeper knowledge of components and circuit functionality.

Chapter 4: A Particular Chip

• Transition from Prototype to Product:

  • Understand internal circuit workings for cost-effective design.

  • Minimize components to reduce costs; avoid unnecessary features on boards (e.g., crystal oscillators, USB chips).

• Variety of ARM Chips:

  • STM32 range from Cortex M0 to M4; core programming skills transferable across chips.

  • Emphasis on ARM over Atmel for cost and feature benefits.

Chapter 5: The Bare Chip

• ARM Architecture Preference:

  • Chose STM32 for its cost-effectiveness and feature set compared to Atmel AVR series chips.

• Programming Similarities:

  • Both ARM and Arduino use C and C++ for programming.

  • Bundled development boards make Arduino easy for beginners, whereas bare chips require deeper understanding.

• Prototyping with Breadboards:

  • Essential for circuit development using pins from the microcontroller.

Chapter 6: Conclusion

• Project Design:

  • Focused design using specific components around microcontroller ensures optimization.

• PCB Design Process:

  • Development boards and components are available from manufacturers for circuit design via free samples.

  • Example: Connecting a microcontroller to an LCD screen and various sensors.

• Final Thoughts:

  • Patrick expresses enthusiasm for teaching about microcontroller technology and hopes to share this journey with viewers.