This course provides an introduction to embedded security and covers industry standards such as ISO/SAE 21434, IEC 62443, NIST SP 800-53, Common Criteria, and OWASP. It covers secure coding practices for C/C++ and introduces the RUST programming language with its built-in security features. Students will learn about secure software development methodologies, security testing, and cryptography in embedded systems. The course covers the design and implementation of secure embedded system hardware architecture and communication protocols. Additionally, it provides an overview of security best practices for IoT devices and systems.

Embedded systems are more and more critical and subject to safety constraints. This training introduces the main concepts and standards applicable to safety-critical systems.

MISRA C:2023, the latest version of the MISRA C standard, which includes guidelines for safety and security supporting all published versions of the C standard. The course has been designed for the smooth and successful adoption of MISRA C into an organization. Lectures, exercises, tests, hands-on sessions and, optionally, a final exam, will significantly strengthen the skills and competences of teams involved in the design, development and verification of critical embedded software systems.

MISRA for Project Managers, provides essential insights for managers overseeing projects that require MISRA compliance. It highlights the importance of MISRA standards in safety-critical systems across various industries. The training emphasizes key aspects such as negotiation, planning, execution, and assessment of MISRA compliance, and equips managers with the knowledge to make informed decisions. By enhancing managerial awareness and skills, it ensures better project outcomes, reduced costs, and improved code quality. This training is invaluable for project leaders seeking to streamline MISRA integration and enhance organizational efficiency.

This course provides embedded system developers and cybersecurity professionals with an in-depth understanding of the Cyber Resilience Act and its impact on digital products. Participants will learn essential cybersecurity requirements, explore compliance pathways, and discover practical strategies for securing embedded systems throughout their lifecycle. The course also highlights market-ready tools and solutions to ensure adherence to the regulation while enhancing product resilience.

The oSEC12 course is designed for software engineers that need to design and program secure systems. This course is a combination of oSEC1 - Secure C/C++ Development for Embedded Systems course and oSEC2 - Advanced Embedded Systems Security course, with a special price when both consecutive sessions are booked at once.

The objectives of this course include learning how to manipulate files and directories securely, protect programs from malicious user input, and understand embedded system hardware features for security.

Attendees will also learn about a secure software development methodology and framework, gain an understanding of the context and use of hypervisors and system virtualization, and become familiar with security checks and tools.

These topics are essential for the development of secure systems software and are applicable to a wide range of applications.

This course is designed to teach you about the security challenges faced by embedded systems and STM32-based devices. You will learn how to identify potential attack vectors and threats and understand the latest security standards and best practices for embedded systems. You will also learn about secure boot and firmware protection mechanisms and how to implement them.

This course teaches the security challenges of embedded systems and NXP-based devices, covers latest security standards and best practices, and explains how to implement secure boot, network protocols, IoT security, and firmware updates.

This course aims to provide an in-depth understanding of the ARM v8-M architecture and its security features. It covers topics such as the Memory Protection mechanism, Security Attribution unit configuration, management of Security access faults, and building and debugging secure and non-secure software. The objective is to equip attendees with the necessary knowledge and skills to develop secure applications for ARM v8-M based systems.