Embedded Driver Development and Debugging

Durations -20 days.

Program Structure

Modules

  • Embedded Systems & MCU Architecture
  • Embedded C for Driver Development
  • GPIO, Interrupts & Timers
  • Communication Drivers (UART, SPI, I2C, CAN)
  • Memory, DMA & Power Management
  • RTOS-Based Driver Integration
  • Debugging Techniques & Tools
  • Testing, Optimization & Standards

Experiential Project Based Learning

  • GPIO & Interrupt Driver Library
  • Timer & PWM Driver Framework
  • Multi-Protocol Communication Stack
  • RTOS-Based Peripheral Manager
  • Fault Injection & Debugging Toolkit
  • Low-Power Embedded Controller
  • Capstone: Complete BSP & Driver Stack

Program Outcomes

Upon completion, students will have:

  • Develop bare-metal and RTOS-based drivers
  • Interface peripherals at register level
  • Debug real hardware using professional tools
  • Optimize firmware for performance & power
  • Build a job-ready embedded driver portfolio

AI Tools / Platform:

Tools & Technologies

  • MCUs: LPC1768 / STM32 / ESP32
  • IDEs: Keil, STM32CubeIDE, Arduino IDE, ESP-IDF
  • Languages: Embedded C, C++ (basic)
  • Debug Tools: JTAG, SWD, OpenOCD, GDB
  • RTOS: FreeRTOS
  • Protocols: UART, SPI, I2C, CAN
  • Analyzers: Logic Analyzer, Virtual Oscilloscope
Embedded Systems & MCU Architecture
MCU Architecture Fundamentals
Theory
Microcontroller vs Microprocessor ARM Cortex-M architecture overview Memory map, registers, clock system
GPIO, NVIC, SysTick basics
Hands-on
MCU pin mapping and datasheet reading Toolchain setup for LPC / STM32 / ESP32 Blinky application (bare metal)
Embedded C for Driver Development
Low-Level Programming
Theory
Volatile, const, static usage Bit manipulation and masking Memory-mapped I/O
Startup code & linker basics
Hands-on
Register-level GPIO control Header and driver file structure
Driver Architecture
Practice
GPIO, Interrupts & Timers
GPIO & Interrupt Drivers
Theory
Polling vs Interrupts NVIC configuration ISR best practices
Hands-on
External interrupt driver Button-debounce using interrupts
Timers & PWM
Theory
Timer modes PWM generation
Hands-on
Timer driver implementation PWM-based LED & motor control
Mini Project:
Event-driven LED controller using interrupts & timers
Communication Drivers
UART Driver
Register-level UART driver Interrupt-based communication
SPI & I2C Drivers
Master–Slave communication Sensor interfacing
CAN Driver
CAN frame structure Mailbox configuration Error handling
Mini-Project:
Sensor node communicating via UART/SPI/I2C
Memory, DMA & Power Management
Memory & DMA
Theory + Practice
Flash, SRAM usage DMA configuration High-speed data transfer
Power Management
Theory + Practice
Sleep & deep sleep modes Clock gating Low-power driver design
RTOS-Based Driver Integration
FreeRTOS Basics
Tasks, queues, semaphores ISR to task communication
Driver + RTOS Integration
Thread-safe drivers Priority inversion issues
Debugging Techniques & Tools
Debugging Fundamentals
Theory
Common embedded faults Stack overflow, hard faults
Hands-on
Breakpoints & watchpoints Register & memory inspection
Advanced Debugging
JTAG/SWD debugging Logic analyzer usage Fault injection techniques
HardFault handler analysis
Testing, Optimization & Standards
Testing & Validation
Unit testing for drivers Boundary and stress testing
Optimization & Coding Standards
Execution time optimization MISRA C overview Code review practices
Capstone Project
Complete Embedded Driver Stack
Students develop:
GPIO, Timer, UART, SPI, I2C, CAN drivers RTOS-based driver framework Debug & fault handling system
Power-optimized firmware
Deliverables:
Source code repository Debugging report Demo on hardware

Enquire Now

Enquire Now

Enquire Now

Please Sign Up to Download

Please Sign Up to Download

Enquire Now

Please Sign Up to Download




    Enquiry Form