
Explore MISRA-C++:2023 guidelines for safer, higher-quality C++ programming in critical systems. Learn key rules, modern C++ design, and strategies for adhering to seemingly challenging guidelines.

Explore the evolution and future of safety in open source software, focusing on challenges, best practices, and the ELISA Project for safety-critical systems.

Explore trace-based models for formal verification of embedded Linux systems, focusing on safety-critical aspects, real-time properties, and system instrumentation techniques.

Explore software engineering fundamentals, quality metrics, and their application in creating functionally safe systems, with a focus on automotive industry standards and practices.

Explore system architectures for safety-critical systems using Linux, Xen, and Zephyr. Learn about reproducible prototyping, documentation, and collaboration in open-source projects for complex systems.

Explore coding guidelines for safety-critical applications, focusing on MISRA rules. Learn when to comply, when to deviate, and how to apply lessons to other languages.

Explore the potential and challenges of implementing Real-Time Linux in safety-critical systems, with insights from industry experts on cutting-edge applications and best practices.

Explore the integration of Linux in safety-critical applications with industry experts, discussing challenges, opportunities, and best practices for secure and reliable implementations.

Explore Xen's role in safety-critical systems, examining its implementation, benefits, and challenges in high-stakes environments like automotive and aerospace industries.

Explore key challenges in deploying Linux for safety-critical applications, including conformance, integrity, and integration. Learn mitigation strategies and best practices for secure implementation.

Explores applying DevOps principles to cyber-physical safety-critical systems in highly regulated environments, addressing challenges and approaches for ensuring traceability, reliability, and safety.

Explore real-time safety in Linux through expert panel discussion, covering strategies, standards, certification, and hardware considerations for critical systems.

Explore Linux kernel development for safety-critical systems, examining methods to assess and improve its suitability for use in autonomous driving and other high-stakes applications.

Explore Linux's role in automotive functional safety, focusing on warning signs in instrument clusters as a starting point for more complex safety-critical applications.

Explore how the ELISA Project facilitates Linux adoption in safety-critical systems, enhancing reliability and security for critical applications across industries.

Explore ELISA project's efforts to enable Linux in safety-critical systems, covering goals, strategies, work groups, and challenges in automotive, medical, and industrial IoT applications.

Explore hypervisor-less virtio for real-time and safety applications in embedded systems, focusing on intelligent edge devices, multicore SoCs, and Linux integration for IoT convergence.

Learn essential functional safety principles for open-source software development, focusing on risk assessment, safety requirements, and industry standards to enhance software reliability and safety.

Explore display sharing in heterogeneous systems, focusing on Linux as a high-level OS. Learn about resource partitioning, safety considerations, and driver implementation for seamless integration.

Panel discussion on the future of real-time Linux kernel, exploring its current state, ongoing developments, and potential applications in safety-critical systems.

Explore cybersecurity threats to space systems, motivations behind attacks, and essential perspectives for securing these critical infrastructures.