BSI PD ISO/TR 4804:2020 2021
$215.11
Road vehicles. Safety and cybersecurity for automated driving systems. Design, verification and validation
Published By | Publication Date | Number of Pages |
BSI | 2021 | 120 |
This document describes steps for developing and validating automated driving systems based on basic safety principles derived from worldwide applicable publications. It considers safety- and cybersecurity-by-design, as well as verification and validation methods for automated driving systems focused on vehicles with level 3 and level 4 features according to SAE J3016:2018. In addition, it outlines cybersecurity considerations intersecting with objectives for safety of automated driving systems.
PDF Catalog
PDF Pages | PDF Title |
---|---|
2 | undefined |
7 | Foreword |
8 | Introduction |
9 | 1 Scope 2 Normative references 3 Terms and definitions |
19 | 4 General approach and overview 4.1 Introduction and motivation 4.2 Overview of this document |
20 | 4.3 Structure and development examples used in this document |
21 | 4.4 Safety vision 4.4.1 Background |
22 | 4.4.2 Positive risk balance and avoidance of unreasonable risk 4.4.3 Principles of safety and cybersecurity for automated driving |
25 | 5 Systematically developing dependability to support safety by design 5.1 General |
26 | 5.2 Deriving capabilities of automated driving from dependability domains 5.2.1 Applying the related safety standards |
27 | 5.2.2 ISO/PAS 21448 – Safety of the intended functionality 5.2.3 ISO 26262 series – Functional safety |
28 | 5.2.4 ISO/SAE 21434 – Automotive cybersecurity |
29 | 5.2.5 Capabilities of automated driving |
33 | 5.2.6 Minimal risk conditions and minimal risk manoeuvres |
35 | 5.3 Elements for implementing the capabilities 5.3.1 Implementing the capabilities |
41 | 5.3.2 Elements |
53 | 5.3.3 Generic logical architecture |
56 | 6 Verification and validation 6.1 General |
57 | 6.2 The scope and main steps of verification and validation for automated driving systems |
58 | 6.3 Key challenges for verification and validation of SAE L3 and SAE L4 automated driving systems |
59 | 6.3.1 Challenge 1: Statistical demonstration of avoidance of unreasonable risk and a positive risk balance without driver interaction 6.3.2 Challenge 2: System safety with driver interaction (especially in takeover manoeuvres) 6.3.3 Challenge 3: Consideration of scenarios currently not known 6.3.4 Challenge 4: Validation of various system configurations and variants 6.3.5 Challenge 5: Validation of (sub)systems that are based on machine learning 6.4 Verification and validation approach for automated driving systems |
60 | 6.4.1 Defining test goals and objectives (why and how well) 6.4.2 Test design techniques (how) |
61 | 6.4.3 Test platforms (where) 6.4.4 Test strategies in response to the key challenges |
65 | 6.5 Quantity and quality of testing |
66 | 6.5.1 Equivalence classes and scenario-based testing 6.6 Simulation |
68 | 6.6.1 Types of simulation |
69 | 6.6.2 Simulation scenario generation 6.6.3 Validating simulation |
70 | 6.6.4 Further applications of simulation 6.7 Verification and validation of elements |
71 | 6.7.1 A-priori information and perception (map) 6.7.2 Localization (including GNSS) |
72 | 6.7.3 Environment perception sensors, V2X and sensor fusion 6.7.4 Interpretation and prediction, drive planning and traffic rules |
73 | 6.7.5 Motion control 6.7.6 Monitor, ADS mode manager (including the vehicle state) 6.7.7 Human machine interaction and user state monitor 6.8 Field operation (monitoring, configuration, updates) 6.8.1 Testing traceability |
74 | 6.8.2 Robust configuration and change management process |
75 | 6.8.3 Regression prevention 6.8.4 Cybersecurity monitoring and updates 6.8.5 Continuous monitoring and corrective enforcement |
77 | Annex A (informative) Development examples |
88 | Annex B (informative) Using deep neural networks to implement safety-related elements for automated driving systems |
100 | Annex C (informative) Principles of safety and cybersecurity for automated driving |
103 | Annex D (informative) List of proposed standards |
115 | Bibliography |