BSI PD CEN/TR 17828:2022
$152.82
Road infrastructure. Automated vehicle interactions. Reference Framework Release 1
Published By | Publication Date | Number of Pages |
BSI | 2022 | 60 |
This document provides the current road equipment suppliers’ visions and their associated short term and medium-term priority deployment scenarios. Potential functional/operational standardization issues enabling a safe interaction of road equipment/infrastructure with automated vehicles in a consistent and interoperable way are identified. This is paving the way for a deeper analysis of standardization actions which are necessary for the deployment of priority short-time applications and use cases. This deeper analysis will be done at the level of each priority application/use case by identifying existing standards to be used, standards gaps/overlaps and new standards to be developed to support this deployment. The release 1 is focusing on short-term (2022 to 2027) and medium-term deployment. Further releases will update this initial vision according to short term deployment reality. The objectives of this document are to: – Support the TC 226 and its WG12 work through the development of a common vision of the roles and responsibilities of a modern, smart road infrastructure in the context of the automated vehicle deployment from SAE level 1 to SAE level 5. The roles and responsibilities of the road infrastructure are related to its level of intelligence provided by functions and data being managed at its level. – Promote the road equipment suppliers and partners visions associated to their short-term and medium- term priorities to European SDOs and European Union with the goal of having available relevant, consistent standards sets enabling the identified priority deployment scenarios. NOTE Road equipment/infrastructure includes the physical reality as its digital representation (digital twin). Both need to present a real time consistency.
PDF Catalog
PDF Pages | PDF Title |
---|---|
2 | undefined |
8 | 1 Scope 2 Normative references 3 Terms, definitions and abbreviated terms 3.1 Terms and definitions |
10 | 3.2 Symbols and abbreviated terms |
12 | 4 Common basic principles 4.1 Intelligent Transport System in CEN TC 226 4.2 ITS interactions |
13 | 4.3 Operational Design Domain |
14 | 4.4 Road infrastructure capabilities 4.5 Sustainability principles |
16 | 4.6 Deployment scenario |
17 | 4.7 Hybrid environment 4.8 Functional safety/redundancy principles |
18 | 5 Functional distribution and interactions 5.1 Introduction |
19 | 5.2 Road infrastructure – Vehicles: autonomous interactions for improved road safety |
22 | 5.3 Road infrastructure – automated vehicles cooperative interactions |
24 | 5.4 Road infrastructure – automated vehicles model-based interactions |
25 | 5.5 Road infrastructure – automated vehicles interactions fusion 5.5.1 General 5.5.2 Dynamic navigation application |
27 | 5.5.3 Road Safety application 5.5.4 Traffic management application 5.5.4.1 General considerations 5.5.4.2 Detour management |
28 | 5.5.4.3 Cooperative Driving Automation (CDA) |
29 | 5.5.4.4 Mobility application |
30 | 6 Operational interactions 6.1 General 6.2 System interoperability 6.3 System performances |
31 | 6.4 System functional safety |
32 | 6.5 System scalability 7 Applications and use cases under investigation. 7.1 Overview 7.2 Accurate, complete digital map as a digital mean for automated vehicle navigation |
33 | 7.3 Dynamic navigation for automated vehicles |
34 | 7.4 Contextual dedicated corridor management 7.5 Automated parking management and vehicle valet |
35 | 7.6 Road infrastructure support for VRU safety 7.7 Road infrastructure support for platoon management |
36 | 7.8 Vehicles distribution |
37 | 7.9 Intersection crossing assistance. |
38 | 7.10 Approaching a tolling barrier 7.11 Collision avoidance consecutive to the traffic code violation |
39 | 7.12 Vehicle interception 7.13 Public road lighting control 7.14 Energy distribution for automated vehicles |
40 | 7.15 Probe vehicles data collection 7.16 Integration of C-ITS in public warning systems 7.17 Various POI |
41 | 7.18 On demand automated vehicles 8 Summary of deployment scenarios priorities 8.1 General 8.2 A few guiding rules for the filling of the priority inquiry |
44 | 8.3 Analysis of the inquiry results |
45 | 8.4 Synthesis of the deployment scenarios priorities result |
47 | 9 Long-term evolution |
48 | 10 Economic & organizational potential impacts 10.1 General 10.2 Roles and responsibilities 10.3 Organizational impacts 10.3.1 General |
49 | 10.3.2 ITS specification harmonization |
50 | 10.3.3 Validation / Certification process |
51 | 10.3.4 Operational evolutions 10.4 Economic impacts |
52 | 11 Projected standardization approaches for identified priority applications 11.1 General 11.2 Contextual, dedicated corridor management 11.3 Road infrastructure support for VRUs safety |
53 | 11.4 Parking management 11.5 Vehicles’ distribution 11.6 Approaching a tolling barrier |
54 | 11.7 Accurate digital map 11.8 Dynamic navigation 11.9 Intersection crossing assist |
55 | 11.10 Platooning |