System Engineering

PROGRAM HIGHLIGHTS

• Cutting-edge modules on Vehicle systems
• Detailed sessions on different E/E Architectures
• Comprehensive modules on the practical knowledge
• Industry-relevant tools and technologies
• Real-world business applications and industry case studies
• Live online interactive sessions
• Capstone project, assignments and quizzes

WHAT AUDIENCE WILL LEARN

• Fundamentals of Automotive Cybersecurity
• Attack Vectors
• Vehicle Cybersecurity Standards
• Project Requirements according to 21434
• TARA (Thread Analysis & Risk Assessment)
• Testing Methodologies according to CAL
• Cybersecurity Validation Lifecycle
• Cryptography and In-vehicle Security concepts

TARGET AUDIENCE 

PROGRAM HIGHLIGHTS

Basics of Functional Safety

Introduction to Functional safety, Definitions and Translations from the ISO 26262,
Risk, Safety and Functional Safety in Automobiles, Quality Management System, Quality Management Systems from the View point of ISO 26262 
Advanced Quality, V-Model, Safety Lifecycles for the Development of Automotive Products, Safety-Lifecycles According to ISO 26262, Security-Versus Safety Lifecycles.

System Engineering

Historic and Philosophic Background, Reliability Engineering, Foundation/Basis of Reliability, Reliability and Safety
Horizontal Level of Abstraction, Requirements and Architecture, Development, Requirements and Design Specification.

System Engineering for Development of Requirements and Architecture

Function Analysis, Hazard and Risk Analysis, Hazard Analysis and Risk Assessment according to ISO 26262, Safety Goals, Safety Concepts, Functional Safety Concept, Technical Safety Concept, Microcontroller Safety Concept, System Analyses, Methods for the System Analysis, Safety Analysis According to ISO 26262, Product Development at System Level, Product Development at Component Level, Mechanical Development, Electronic Development, Software Development.

System Engineering in the Product Development

Product Realization, Product Design for Development, Mechanics, Electronics, Software, Functional Safety and Timing Constraints, Safety Aspects of Fault-Reaction-Time-Interval, Safety Aspects and Real-Time Systems, Timing and Determinism.

System Integration

Verifications and Tests, Basic Principles for Verifications and Tests, Verification based on Safety Analyses, Verification of Diverse Objectives such as Safety and Security, Test Methods, Integration of Technical Elements, Safety Validation, Model Based Development, Models for Functional Safety, Foundation for Models, Model Based Safety Analysis, Approvals/Releases, Process Releases, Release for Series Production, Production Part Approval Process (PPAP).

Confirmation of Functional Safety

Confirmation Reviews, Functional Safety Audits, Assessment of Functional Safety, Safety Case 

WHAT AUDIENCE WILL LEARN

Learning Functional Safety (FuSa) provides significant advantages for both individual professionals and organizations by ensuring that complex electronic and programmable systems operate safely and predictably.

Regulatory Compliance: Many industries mandate FuSa compliance to legally enter the market. Knowledge of these standards ensures your products meet international safety and legal requirements.

Cost Efficiency: Identifying and fixing hazards during the early design phase is far more cost-effective than managing field failures, recalls, or legal actions later.

Enhanced Reliability and Trust: Implementing FuSa improves product quality and reliability, which builds brand reputation and increases customer satisfaction.

Operational Efficiency: Well-managed safety protocols reduce equipment downtime and minimize the risk of catastrophic accidents that can halt production.

TARGET AUDIENCE

Experience professionals with 1/2 years of experience in Automotive System Engineering
Mid-senior managers/leaders who need to upgrade their skills on Automotive Functional Safety