
Define embedded systems as a hardware-software duo that performs a dedicated function with real-time operation, minimal resources, and low power.
Explore how embedded systems power automotive, medical, avionics, and consumer electronics, from engine control and anti-lock braking systems to software defined vehicle, wearables, and IoT devices, enabling flight automation.
Explore how embedded systems are classified by latency (real-time, hard real-time, soft real-time, non-real-time), triggering (event-triggered vs time-triggered), and processing hardware (microcontroller, microprocessor/DSP, SoC, FPGA).
Explore the key differences between microprocessor- and microcontroller-based embedded systems, including functionality, peripherals, power, cost, applications, and development environments.
Explore embedded hardware options, from microcontrollers to ASICs, and learn to select hardware by power, latency, cost, and real-time needs, with emphasis on clocks, buses, and peripherals.
Explore Flynn's taxonomy of embedded computation models (sp, sd, spmd, mp/md) and common software architectures, including layered, event-driven, and service-oriented designs alongside model-view-controller.
Explore three layered embedded software stacks that separate application from hardware—bare-metal, autosar-based ecus, and linux-based platforms—illustrated with a self-balancing bot using imu, i2c, pid, and pwm.
Explore how an airbag ECU applies Autosar stack to sense vehicle data and deploy in real time, communicating via CAN, LIN, and SPI networks.
Explore Linux-based layered architectures for embedded cockpit systems, highlighting heterogeneous system-on-chip designs with MPUs and MCUs, interfacing via USB, Ethernet, MIPI CSI, and touch screens.
Explore embedded programming languages, from C and C++ to Python (MicroPython) and Rust, and compare bare metal, Autosar, and Linux architectures along with essential toolchains.
Explore the formal design and development steps of embedded systems, from requirement analysis (functional and non-functional) to architecture design and hardware–software partitioning, through SDLC-driven testing and validation.
Explore the real world embedded ecosystem where OEMs, solution providers, and service providers collaborate to design, verify, and validate embedded systems, detailing system architects, developers, validation engineers, workflows, and standards.
Embark on a comprehensive journey into the intricate realm of embedded systems, where this course serves as your guiding beacon through architecture, design, and development. This immersive learning experience delves into the foundational principles and intricacies that define embedded systems, unraveling the intricacies of their architecture, and guiding you through the design and development processes.
From understanding the fundamental distinctions between microprocessors and microcontrollers to navigating the intricacies of hardware and software interaction, this course provides a holistic view of embedded systems. Explore the classification of embedded systems, distinguishing between Microprocessors (MP) and Microcontrollers (MC), and gain insights into the hardware components that constitute these systems.
Navigate the intricate landscape of software architecture in embedded systems, unraveling the layers of bare-metal and AUTOSAR stacks, and exploring the integration of Linux and Android stacks. Immerse yourself in various programming languages applicable to embedded systems, equipping you with the versatility needed for effective development.
Whether you're a student, a software developer seeking hardware expertise, or a professional aiming to specialize in embedded systems, this course caters to diverse learning needs. Join us on this illuminating voyage as we unravel the layers of complexity in embedded systems, empowering you with the knowledge and skills to navigate this intricate domain with confidence and proficiency.