Linux has established itself as the primary choice when it comes to developing Embedded Systems. In this   introductory module is intended to get new programmers up and running with Linux embedded environment. Starting with basics of Linux and its features, this module dives into essential commands, Shell scripting and using tools like Vim. By getting to know powerful Linux commands for redirection and pipes, lay strong foundation to automate routine tasks.By the end of the module you will be able to setup Linux platform and use it comfortably for your Embedded Systems development.

This course is designed to bridge that gap, starting with the fundamentals of programming and progressing to advanced topics in C such as pointers, optimization, operators, and memory management. You’ll also explore object-oriented programming (OOP) concepts in C++, including objects, classes, polymorphism, and inheritance.

By the end of this module, you’ll have the skills to translate complex problem statements into efficient C/C++ programs. These skills are essential for building functional embedded systems, making this course a valuable asset for aspiring driver developers.

This course starts by covering the basics of electronics, including components like resistors, capacitors, and transistors, and how they are used to create circuits. You’ll then move on to learning about microcontrollers, the brain of embedded systems, and how to program them using languages like C and C++.

Additionally, you’ll delve into the world of embedded systems, exploring topics such as interrupts, timers, and communication protocols like UART, SPI, and I2C. By the end of the course, you’ll be able to develop drivers for various electronic components and controllers, paving the way for a career in the exciting field of embedded systems development.

This course begins with an overview of AUTOSAR, explaining its architecture, methodology, and key concepts. You’ll learn about the layered software architecture, which separates the application software from the underlying hardware, enabling portability and reusability.

As you progress, you’ll delve into advanced configurations of AUTOSAR, focusing on topics such as configuration tools, RTE (Run-Time Environment) generation, and communication stack configuration. You’ll also explore the various modules and components that make up an AUTOSAR-compliant system, gaining hands-on experience in configuring these components for different automotive applications.

By the end of the course, you’ll have a solid understanding of AUTOSAR basics and advanced configurations, equipping you with the skills needed to develop software for automotive systems following the AUTOSAR standard.

Automotive testing is a critical part of the automotive development process, ensuring that vehicles meet safety, performance, and regulatory standards. This course provides an in-depth look at the basics and advanced aspects of automotive testing.

The course starts with an overview of automotive testing, covering the different types of tests conducted during the development lifecycle, including component testing, system testing, and vehicle testing. You’ll learn about the importance of testing in ensuring vehicle safety, reliability, and compliance with industry standards.

As you progress, you’ll delve into advanced testing techniques and tools used in the automotive industry, such as simulation software, testing frameworks, and diagnostic tools. You’ll also learn about test automation and its role in improving testing efficiency and reducing time to market.

By the end of the course, you’ll have a comprehensive understanding of automotive testing principles and practices, making you well-equipped to contribute to the development of safe and reliable automotive systems.

The course begins with an introduction to EV design, covering topics such as battery technology, power electronics, and electric drivetrains. You’ll learn about the different types of EVs, including battery electric vehicles (BEVs), hybrid electric vehicles (HEVs), and plug-in hybrid electric vehicles (PHEVs).

As you progress, the course delves into advanced topics in EV design, such as vehicle dynamics, thermal management, and regenerative braking systems. You’ll also learn about motor design principles, including motor types, construction, and performance characteristics.

By the end of the course, you’ll have a deep understanding of EV design and motor design, equipping you with the knowledge and skills needed to design and develop innovative electric vehicles and electric motors.

The course starts with an introduction to RTOS, explaining its role in embedded systems, key features, and advantages over traditional operating systems. You’ll learn about task scheduling, synchronization mechanisms, and memory management in RTOS.

As you progress, the course delves into advanced topics in RTOS, such as real-time constraints, task prioritization, and interrupt handling. You’ll also explore practical aspects of RTOS, including debugging techniques and performance optimization.

By the end of the course, you’ll have a solid understanding of RTOS basics and advanced concepts, enabling you to design and develop real-time embedded systems with confidence.

MATLAB is a powerful programming language and environment used extensively in various fields such as mathematics, engineering, and science. This course provides a comprehensive overview of MATLAB, covering both basic and advanced concepts.

The course begins with an introduction to MATLAB, explaining its interface, basic syntax, and fundamental data types. You’ll learn how to perform mathematical operations, create plots and graphs, and work with matrices and arrays.

As you progress, the course delves into advanced topics in MATLAB, such as image processing, signal analysis, and control system design. You’ll also learn about MATLAB’s advanced features, including toolboxes for specific applications and the creation of graphical user interfaces (GUIs).

By the end of the course, you’ll have a solid understanding of MATLAB’s capabilities and be able to use it effectively in various fields, from academic research to industrial applications.

The course begins with an introduction to HIL testing, explaining its role in the development lifecycle, basic principles, and advantages over traditional testing methods. You’ll learn about the components of an HIL test system, including the simulation environment, real-time simulator, and the system under test (SUT).

As you progress, the course delves into advanced topics in HIL testing, such as model fidelity, test automation, and fault insertion. You’ll also learn about the different types of HIL tests, including validation, regression, and stress testing.

By the end of the course, you’ll have a solid understanding of HIL testing principles and be able to design and execute HIL test scenarios effectively, ensuring the reliability and performance of complex electronic systems.