This module provides hands-on guidance on setting up essential development tools and configuring the workspace for practical implementation. Learners will gain the skills to install and prepare development environments efficiently. The content covers key steps to ensure a smooth start for future projects.

This module introduces learners to core concepts in FreeRTOS, including naming conventions, macro definitions, and system configuration. It covers how to apply RTOS principles to manage multitasking, synchronization, and scheduling in real-time embedded systems. Learners will gain practical knowledge to integrate FreeRTOS into their projects.

This module explores the fundamentals of task management in FreeRTOS, including creating, controlling, and managing tasks within an embedded system. Learners will gain hands-on experience with RTOS APIs and understand how to implement multitasking, synchronization, and scheduling mechanisms. The content emphasizes practical application through firmware-focused approaches.

This module explores the fundamentals of FreeRTOS queue and QueueSet management, focusing on how to efficiently manage data flow between tasks in real-time systems. Learners will gain hands-on understanding of queue operations, synchronization techniques, and integration with embedded application workflows.

This module explores the use of semaphores in FreeRTOS to manage multitasking, synchronization, and scheduling. Learners will gain an understanding of how RTOS concepts and APIs can be leveraged to control concurrent processes. The focus is on implementing and managing semaphores effectively in embedded systems.

This module covers the development and validation of drivers using a structured firmware approach. Learners will gain hands-on experience in implementing and testing driver components to ensure they function correctly in a target environment.

This module explores the use of FreeRTOS semaphores, including mutexes and counting semaphores, to manage multitasking, synchronization, and resource access in real-time systems. Learners will gain hands-on understanding of RTOS APIs and how to implement them effectively.

This module introduces the concept of implementing a gatekeeper system using firmware-based methods. Learners will explore the principles of structured task execution and security protocols. By the end, they will understand how to design and deploy a functional gatekeeper solution.

This module explores the fundamentals of FreeRTOS software timers, including their configuration, operation, and integration into embedded systems. Learners will gain practical knowledge on how to implement and manage timing functions in real-time applications.

This module explores the fundamentals of interrupt handling in FreeRTOS, focusing on configuring UART communication, interacting with interrupt service routines, and receiving complete data packets. Learners will gain practical knowledge on integrating these concepts into real-time embedded systems.

This module introduces the fundamentals of FreeRTOS EventGroups, including their components, how to set and read event bits, and how to use them for task synchronization in real-time systems. Learners will gain practical skills in leveraging EventGroups to manage multitasking and communication in embedded systems.

This module explores the fundamentals of task notifications in FreeRTOS, including their role in managing multitasking, synchronization, and scheduling. Learners will gain an understanding of how to implement and use notification mechanisms effectively in real-time systems.

This module explores the core concepts of the FreeRTOS scheduler, including multitasking, synchronization, and scheduling configurations. Learners will gain an understanding of how to configure and manage task execution in real-time systems. The content provides practical insights into preemption and pseudo timeslicing mechanisms.

This module covers the fundamental concepts and practical implementation of CMSIS-RTOS2 APIs for managing threads, timers, and synchronization mechanisms in embedded systems. Learners will gain hands-on experience in creating and controlling real-time tasks and system resources.