SDV Guide
digital.auto
  • Welcome
  • SDV101
    • Part A: Essentials
      • Smart Phone? No: Habitat on Wheels!
      • Basics: What is a Software-defined Vehicle
      • MHP: Expert Opinion
      • Challenges: What sets automotive software development apart?
      • SDV Domains and Two-Speed Delivery
    • Part B: Lessons Learned
      • Learnings from the Internet Folks
        • Innovation Management
        • Cloud Native Principles
          • DevOps and Continuous Delivery
          • Loose Coupling
            • Microservices & APIs
            • Containerization
            • Building Robust and Resilient Systems
      • Learnings from the Smart Phone Folks
    • Part C: Building Blocks
      • Foundation: E/E Architecture
        • Today`s E/E Architectures
        • Evolving Trends in E/E Architectur
        • Case Study: Rivian
      • Standards for Software-Defined Vehicles and E/E Architectures
      • Building Blocks of an SDV
        • Service-Oriented Architecture
          • The SOA Framework for SDVs
          • Container Runtimes
          • Vehicle APIs
          • Example: Real-World Application of SDV Concepts
          • Ensuring Functional Safety
          • Event Chains in Vehicle SOAs
          • Vehicle SOA Tech Stack
        • Over-the-Air Updates: The Backbone of Software-Defined Vehicles
        • Vehicle App Store: The Holy Grail of Software-Defined Vehicles
      • Summary: Building Blocks for Software-Defined Vehicles
    • Part D: Implementation Strategies
      • #DigitalFirst
      • Hardware vs Software Engineering
        • The Traditional V-Model in Automotive Development
        • Agile V-Model, anybody?
        • Key: Loosely Coupled, Automated Development Pipelines
        • The SDV Software Factory
      • Implementing the Shift Left
        • Simulation and Digital Prototyping
          • Early Validation: Cloud-based SDV Prototyping
          • Detailed Validation: SDVs and Simulation
        • Towards the Virtual Vehicle
          • Case Study: Multi-Supplier Collaboration on Virtual Platform
          • Long-Term Vision
        • Physical test system
        • De-Coupled, Multi-Speed System Evolution
        • Continuous Homologation
        • Summary and Outlook
      • Enterprise Topics
        • Variant Management
        • Engineering Intelligence
        • Enterprise Organization, Processes, and Architecture
        • Incumbent OEMs vs EV Start-ups
  • SDV201
  • ./pulse
    • SDV Culture
    • Lean Sourcing
      • LeanRM
        • Why so many Requirements?
      • SCM for SDVs
    • SDV Systems Engineering
      • LeanSE
      • SDVxMBSE
    • Digital First
    • Loose Coupling
      • API-first
      • Freeze Points
    • Automation and Engineering Intelligence
    • Continuous Homologation
    • Build / Measure / Learn
  • Glossary
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On this page
  • How Continuous Homologation Fits into Shift-Left
  • digital.auto Whitepaper
  1. SDV101
  2. Part D: Implementation Strategies
  3. Implementing the Shift Left

Continuous Homologation

PreviousDe-Coupled, Multi-Speed System EvolutionNextSummary and Outlook

Last updated 6 months ago

As Software-Defined Vehicles (SDVs) evolve through frequent software updates, ensuring compliance with regulatory and safety standards becomes a continuous challenge. Traditionally, vehicle homologation—the process of certifying that a vehicle meets regulatory standards—was performed after development was complete. This model worked in a hardware-dominated automotive world but fails in the fast-paced, iterative environment of SDVs. This is where Continuous Homologation (CoHo) comes into play.

How Continuous Homologation Fits into Shift-Left

The Shift-Left approach in SDV development advocates for earlier testing, validation, and integration, moving critical processes "leftward" on the development timeline. Continuous Homologation extends this principle by embedding compliance checks into the development process itself. Rather than treating homologation as a final, isolated step, CoHo ensures that every change—whether a software patch or a major feature update—is evaluated for regulatory impact as soon as it is proposed.

By shifting regulatory validation left, CoHo allows software teams to identify and address compliance issues early. This reduces the risk of costly delays caused by late-stage certification failures. It also ensures that regulatory compliance keeps pace with rapid development cycles, enabling continuous delivery while maintaining safety and legal integrity.

Key Elements of Continuous Homologation

  1. Automated Compliance Checks: Every Change Request (CR) is automatically matched against relevant regulations using advanced tools.

  2. Virtual and Real-World Testing: Compliance is validated through simulation, virtualization, and real-world testing environments.

  3. Progressive Validation: Testing progresses from early prototypes to full-system integration, ensuring continuous verification.

  4. Collaborative Ecosystem: OEMs, suppliers, and regulators must work together using shared platforms to streamline compliance efforts.

digital.auto Whitepaper

The whitepaper “Continuous Homologation for Software-Defined Vehicles” provides a detailed framework for implementing CoHo. It covers Change Request management, regulatory mapping, dependency analysis, and simulation-based validation, supported by real-world case studies. The proposed system emphasizes automation, scalability, and collaborative standard-setting within the industry.

For a deeper dive, read the full whitepaper here: .

Continuous Homologation Whitepaper