Embedded System- Design and Development
Program Outcomes
At the completion of the program the learners will be able to:
Discuss the significance of microcontrollers, sensors and actuators, memory types, peripherals, and Digital/Analog electronics in acquisition and processing of data
Analyse appropriate standards and testing methodologies adopted in the validation of system performance and safety
Develop efficient Embedded software for real-time systems using polling, interrupts, RTOS and Embedded Linux environments and analyse its performance through application of appropriate standards and testing methodologies
Design, Analyse and develop Embedded hardware schematic, PCB layout and high-speed interconnects to meet desired application requirements
Design and develop Embedded hardware involving interface between sensors/actuators with external devices using UART, SPI, I2C, CAN and wireless protocols and validate its functionality through appropriate standards and testing methodologies
Design a firmware for a given application involving real-time data acquisition, debugging, integrating and performance optimization meeting the desired specification
Develop the designed firmware, validate and demonstrate its performance
Indicative Content
Foundation
- Embedded Systems Basics
- Computer Architecture
- C Programming
- MATLAB & Simulink for Modeling
- Microcontrollers Sensors & Actuators
- Communication Protocols
Software Development
- C++ & Python for Embedded
- Standards
- Testing & Debugging
- OS/Unix/Linux OpenCV for Embedded Vision
- GitHub CI/CD for Firmware
- Project Demo & Validation
Hardware Development
- Digital/Analog Circuits
- Sensors and Actuator Interfacing
- Internet Of Things
- Data Analytics and Machine Learning for IoT
- Data Visualization Techniques
- PCB Design
- High-Speed Design
- Fabrication Test Cases
- Board Bring-Up & Debugging
Firmware Development
- Embedded C
- RTOS
- Device Drivers
- OS vs. No-OS Programming
- Multithreading & Pipelining
- Assembly Optimization
- Capstone Projects