Hardware Programming Embedded Programming Arduino Nano Pico 1 Pico 2 Pico Wi-Fi Pico LAN Microchip PIC

BYTE FORGE EDU / Hardware And Embedded Programming

Embedded Programming

Learn firmware structure, memory, GPIO, analog input, PWM, timers, interrupts, UART, I2C, SPI, debugging, and deterministic state-machine design.

Embedded programming workbench with microcontroller development equipment
Code: EMBEDDED_PROGRAMMING
Languages: C and C++
Workflow: build, flash, test, diagnose

Requirements And Outcomes

Read the exact board data sheet, pinout, voltage limits, and official toolchain documentation before connecting hardware.

Required Before Starting
  • C Foundations or C++ Foundations
  • Basic electronics and logic levels
  • Ability to compile and run simple programs
Skills After Completion
  • Structure deterministic firmware
  • Control GPIO and timing peripherals
  • Exchange data through common buses
  • Diagnose and recover from hardware failures

Embedded Programming Lessons And Tasks

Embedded programming requires predictable software that works within strict memory, timing, electrical, and reliability limits.

1.a MICROCONTROLLER EXECUTION

EMBEDDED FOUNDATIONS
What is learned: MICROCONTROLLER EXECUTION
Why it matters: Embedded programming requires predictable software that works within strict memory, timing, electrical, and reliability limits.

  • 1.a1
    Understand firmware and the main execution loop.
  • 1.a2
    Understand startup and initialization.
  • 1.a3
    Distinguish flash, RAM, registers, and nonvolatile storage.
  • 1.a4
    Use fixed-width integer types.
  • 1.a5
    Use volatile for hardware-facing state where required.
  • 1.a6
    Avoid undefined behavior in firmware.
  • 1.a7
    Design deterministic state machines.
  • 1.a8
    Separate hardware access from application logic.
  • 1.a9
    Add fault and reset handling.
  • 1.a10
    Build a documented firmware skeleton.

1.b GPIO TIMING AND INTERRUPTS

EMBEDDED FOUNDATIONS
What is learned: GPIO TIMING AND INTERRUPTS
Why it matters: Embedded programming requires predictable software that works within strict memory, timing, electrical, and reliability limits.

  • 1.b1
    Configure a digital output.
  • 1.b2
    Read a digital input.
  • 1.b3
    Debounce a button.
  • 1.b4
    Generate PWM output.
  • 1.b5
    Read an analog input.
  • 1.b6
    Use a hardware timer.
  • 1.b7
    Understand interrupt service routines.
  • 1.b8
    Share data safely between main code and interrupts.
  • 1.b9
    Build a non-blocking timing loop.
  • 1.b10
    Build an event-driven input/output controller.

1.c COMMUNICATION AND DEBUGGING

EMBEDDED FOUNDATIONS
What is learned: COMMUNICATION AND DEBUGGING
Why it matters: Embedded programming requires predictable software that works within strict memory, timing, electrical, and reliability limits.

  • 1.c1
    Send diagnostics over UART.
  • 1.c2
    Exchange data over I2C.
  • 1.c3
    Exchange data over SPI.
  • 1.c4
    Understand CAN and industrial buses conceptually.
  • 1.c5
    Design a packet format.
  • 1.c6
    Add checksums and timeouts.
  • 1.c7
    Use a logic analyzer.
  • 1.c8
    Use a debugger and breakpoints where supported.
  • 1.c9
    Record firmware version and build information.
  • 1.c10
    Build a communication test harness.