
Define the system’s boundaries, components, and interactions, ensuring a clear understanding of its functionality and safety requirements. This foundational step is essential for effective hazard analysis and risk management throughout the system's lifecycle.
By the end of this section, it will be possible to identify hazards, analyze risks, and apply the HAZOP methodology to systematically evaluate potential failures and enhance system safety.
By the end of this section, it will be possible to define system boundaries, identify critical control actions, and analyze potential hazards using STPA Step 1. This approach enhances system safety by systematically identifying unsafe control actions that could lead to accidents or failures.
By the end of this section, it will be possible to assess risks systematically, evaluate their impact, and implement mitigation strategies to enhance system safety and compliance.
By the end of this section, it will be possible to conduct Failure Modes and Effects Analysis (FMEA) and apply STPA Step 2 to identify failure modes, assess their impact, and develop effective mitigation strategies.
This section will provide the ability to define functional safety concepts, establish safety goals, and develop system architectures that comply with ISO 26262 requirements.
At the end of this section, it will be possible to define functional safety requirements, ensure system design meets safety standards, and address potential hazards to achieve compliance with ISO 26262.
At the end of this section, it will be possible to identify key performance parameters, develop test scenarios, and assess system behavior under different conditions to ensure functionality and safety compliance. These test scenarios will help validate the system's performance and identify potential risks.
This course provides a comprehensive understanding of automated lane centering systems, focusing on their design, safety strategies, and compliance with ISO 26262 standards. Participants will learn to apply functional safety concepts, perform risk assessments, and develop system architectures. The course covers methodologies like HAZOP, FMEA, and STPA to identify hazards, assess risks, and implement mitigation strategies. Students will also explore how to define safety requirements and ensure that system design addresses critical safety objectives. Additionally, the course emphasizes the importance of performance parameters and test scenarios to validate system functionality under varying conditions. Hands-on experience in creating test scenarios, conducting risk assessments, and assessing system performance will allow participants to ensure the system meets safety goals and regulatory requirements. By the end of the course, students will be equipped with the skills to evaluate and manage safety risks in automated lane centering systems, ensuring compliance with safety standards and enhancing the overall system reliability. This knowledge will be valuable for engineers and professionals involved in the development and safety assessment of advanced driver-assistance systems (ADAS) and autonomous vehicles. The course will also prepare participants for real-world challenges faced when integrating safety measures into these complex systems, fostering skills to improve safety protocols.