Cellular Vehicle-to-Everything, or C-V2X, communications will make transportation not only safer and smarter but also more sustainable.
Sustainability has three dimensions: environmental, social and economic.
C-V2X ticks all three boxes:
Environmental: By helping to make every trip smarter, safer and more efficient, C-V2X helps reduce congestion and accidents, thereby reducing air pollution, noise pollution and energy use.
Social: Saving lives and avoiding injuries are clear social benefits. By enabling real-time communication between pedestrians, cyclists, traffic infrastructure and moving vehicles, including motorcycles and electric scooters, C-V2X will help avoid accidents that otherwise would result in injuries and deaths.
Economic: By enabling more efficient mobility, C-V2X will save people and employers billions of man-hours currently wasted in traffic jams. Those man-hours can then be dedicated to more rewarding activities.
C-V2X also enables the growth of autonomous mobility, which in turn offers even greater sustainability benefits, for example mobility-as-a-service offerings.
To learn more, watch the short video or scroll down for more details.
C-V2X can help all vehicles operate and deliver people and goods more efficiently, thereby reducing pollution and optimizing the use of valuable energy resources.
INRIX calculated that each second of reduced delays at traffic signals across the United States would translate to an annual reduction of 800,000 metric tons of CO2.
Connected vehicle technology can help electric cars calculate an energy-optimised route to a charging station that’s not necessarily the fastest or nearest but requires the least energy to reach.
Examples of environmental benefits enabled by C-V2X technologies include:
Current technology permitting smarter routing for all vehicles in both urban and rural areas, for example via automated traffic routing, road, bridge, tunnel and parking availability updates and smart parking.
Future technology permitting “green waves” for emergency vehicles, cars, trucks, lorries and other vehicles instead of stop-and-go traffic.
Future technology facilitating manoeuvres and cooperation in traffic.
By enabling real-time communication between pedestrians, cyclists, traffic infrastructure and moving vehicles, including motorcycles, C-V2X will help avoid accidents that otherwise would result in injuries and deaths.
According to the World Health Organisation, there were 1.35 million traffic deaths globally in 2016, the latest year for which global data are available. Road traffic deaths are a leading cause of death among young people, in particular.
In the European Union, there were about 20,608 road deaths in 2023, or about 46 road deaths per million inhabitants.
In the United States, an estimated 40,990 people died in road accidents in 2023. The United States Department of Transportation has set an ambitious goal of zero traffic deaths, in part by leveraging advanced technologies to prevent accidents in the first place.
It says: “The U.S. Department of Transportation’s National Roadway Safety Strategy specifies that zero is the only acceptable number of deaths and serious injuries on our roadways. USDOT is committed to taking substantial, comprehensive action to achieve this goal.”
By providing real-time hazard notifications and enabling connected cooperative driving, C-V2X makes transportation safer for all road users, including cyclists. As C-V2X makes the roads safer, more people may feel confident in choosing cycling as their primary mode of transportation.
A U.S. DOT pilot study demonstrated that C-V2X technology can prevent accidents and injury for vulnerable road users.
Green waves and corridors for emergency vehicles can help save lives and reduce injuries, allowing people to lead longer, healthier and more fulfilling lives.
Response times are critical for emergency vehicles and first responders to save lives. A 2020 study showed that “green waves” at traffic lights could reduce response times by as much as 30% with little impact on overall traffic conditions.
By enabling more efficient mobility, C-V2X will save commuters billions of man-hours currently wasted in stressful traffic jams.Those man-hours can be dedicated to more enjoyable and rewarding activities such as doing sports, hobbies, volunteering, education or spending time with friends and family.
In Europe, the average driver in some cities loses more than 150 hours per year stuck in traffic jams.
Americans lost as much as 3.4 billion hours in traffic in total in 2021.
C-V2X helps connect other modes of transport with one another to facilitate a real multi-modal transportation system.
ECONOMIC BENEFITS
By enabling automated driving and mobility as a service, C-V2X will help create new products and services that help drive more sustainable economic growth.
For example, anonymous data collected through C-V2X can help governments and policymakers develop more effective infrastructure maintenance programmes and traffic plans.
For commercial vehicles, C-V2X can help optimise delivery routes and schedules and reduce the number of empty or partially loaded trips. Efficient route management reduces energy use and pollution.
The deployment of C-V2X technologies in vehicles can increase demand for 5G and future networks, each of which will be more energy-efficient than the technologies they replace.
Want to learn more?
If you want to learn more about the timeline for the introduction of next-generation C-V2X communications technologies, including those with clear environmental benefits, please see our latest C-V2X technology Roadmap here.
Community
Ecosystem & Cooperation
With the numerous challenges connected and automated driving are bringing, the 5G Automotive Association (5GAA) is partnering up for the future with many different players. As building safety norms and standards play a vital role in the new era of mobility, 5GAA proactively teams up with several organisations, road operators and regulatory bodies to boost the deployment of connected cars and safer roads.
Global Partners
Standardisation
Collaboration to produce Third Generation Mobile System specifications, of globally applicable Technical Specifications and Technical Reports for a 3rd Generation Mobile System
Support to cooperation between ETSI and 5GAA, 5GAA participation in key meetings and other technical processes
Testing, Conformance and Interoperability
Cooperate in the area of multi-access edge computing, share resources, and coordinate technical, testing and deployment activities.
Support to C-V2X Conformance Testing and Certification in respective regions of operation
Support to C-V2X Conformance Testing and Certification in respective regions of operation
Collaboration in the process of testing C-V2X technology through various means, in support of identifying use and business cases for connected vehicles
Promotion Groups and Think Tanks
Cooperation to boost deployment of connected cars and safer roads by working across industries to focus on privacy/security, common standards and target the 5.9GHz spectrum band specifically for the internet of vehicles
Progression of the development of Cellular-V2X, commitment to the promotion of a global unified C-V2X standard and E2E industry, building of a deeply integrated and innovated C-V2X ecosystem among automotive, telecommunication and more vertical industry partners
Enhancement and fostering of a closer cooperation in the area of 5G-based V2X solutions
Regional Partners
Europe
Cooperation towards network deployment for mobility services.
Exchange of information, seeking solutions concerning the use of radio frequencies to facilitate the development of future mobility and transportation services especially for the purpose of ITS communications
Promotion and coordination as necessary of the Baltic Sea Region 5G Ecosystem Forum with the Electronic Communication Office of Latvia
Coordination of technical, testing and deployment activities in relation to connected and automated driving, standardization priorities supporting connected and automated driving, promotion on spectrum-related issues and agreement on usage modalities of certain bands
Korea
Partnership to exchange of information regarding 5G mobile communication technology related to Automotive and Road Transport, analysis of technology trends, discussion of global standardization trends, promotion of 5G and C-V2X ecosystem growth
Partnership to facilitate sharing information on 5G mobile technology in Automotive and Road Transport, analysis of technology trends, discussion of global standardization trends, promotion of 5G and C-V2X ecosystem growth
China
fostering of cooperation in the field of connected and autonomous driving solutions, further conducting technical research on LTE-V2X and 5G-V2X, ensuring the promotion of the applications of 5G based V2X solution
Japan
Cooperation between 5GAA and members of 5G MF with reference to the Japanese 5G ecosystem
United States
GOVERNANCE
Defining the future of connected mobility solutions
The 5G Automotive Association (5GAA) is comprised of the Executive Committee, the Board, the General Assembly, and the Working Groups. Together, the different bodies ensure the successful running and operations of the association.
General Assembly
The General Assembly ensures a diverse Board composition regarding geographic regions and industry sectors.
Board
The 5GAA Board supervises and advises the Executive Committee in all material respects, particularly concerning strategic considerations. The Board is composed of eighteen members, elected by the General Assembly every year, out of which:
– twelve seats are reserved to platinum members (the highest member category);
– six seats are reserved to candidates elected among the gold members.
REPRESENTED BY
Usman Zafar Chaudhary
Arnold Liu
REPRESENTED BY
Christoph Voigt
Jörg Plechinger
REPRESENTED BY
Andreas Schaller
Frank Hofmann
REPRESENTED BY
Joachim Göthel
Georg Schmitt
REPRESENTED BY
Jinling Hu
Li Zhao
REPRESENTED BY
Tim Leinmüller
Lutz-Peter Breyer
REPRESENTED BY
Friedhelm Ramme
Tomas Nylander
REPRESENTED BY
Ivan Vukovic
Todd Konet
REPRESENTED BY
Yingpei Lin
Chan Zhou
REPRESENTED BY
Colin Lee
Subhamoy Ghosh
REPRESENTED BY
Rainer Krumrein
Osman Aydin
REPRESENTED BY
Berthold Panzner
Stephan Miller
REPRESENTED BY
Jim Misener
Vince Park
REPRESENTED BY
Suman A. Sehra
Amine Taleb
REPRESENTED BY
Antonio Fernández
Gurudutt Venkatesh
REPRESENTED BY
Thomas J. Fox
Jyoti Sharma
REPRESENTED BY
Luke Ibbetson
Tony Sammut
5GAA Leadership: Chair, Vice Chair, Executive Committee and CTO
The 5GAA Board is led by a Chair and a Vice Chair, elected amongst its members.
Reporting to the Board, the Executive Committee is the legal representative body of the association and is responsible for the day-to-day management of the 5GAA. The Executive Committee consists of three persons —Director General, Secretary, and Treasurer—, supported by the Chief Technology Officer as a non-statutory member.
The 5G Automotive Association (5GAA) is a global association with over 120 member companies from the automotive and telecommunications industries. Partners who are active in the broader telecommunications and automotive ecosystem, such as universities, research bodies, associations, and public authorities also joined the ecosystem. Each of the 5GAA members bring added value to the 5GAA mission through their contributions and visionary mindset. Together, the key partners foster collaboration and exchange to path the way towards the new mobility era.
Projects
European Projects
5GCAR
The Fifth Generation Communication Automotive Research and innovation, 5GCAR, is a 5GPPP Phase 2 project. The 5GCAR research and innovation initiative addresses the stringent requirements posed on the wireless communication system by bringing the fields of telecommunication and automotive closer together and investigating the benefit of 5G for demanding automotive use cases.
5G-DRIVE
The Horizon 2020 project 5G-DRIVE: 5G HarmoniseD Research and TrIals for serVice Evolution between EU and China (2018-2021) aims at trialling and validating the interoperability between EU & China 5G networks operating at 3.5 GHz bands for enhanced Mobile Broadband (eMBB) and 3.5 & 5.9 GHz bands for V2X scenarios.
5G-EVE
5G EVE is the European 5G validation platform for extensive trials. The goal is to implement and test advanced 5G infrastructures in Europe. The 5G-EVE concept is based on further developing and interconnecting existing European sites in Greece, Spain, France, and Italy to form a unique 5G end-to-end facility.
5G-MOBIX
The 5G-MOBIX project is co-financed by the European Commission within the framework of the Horizon 2020 programme. 5G-MOBIX will develop and test automated vehicle functionalities using 5G core technological innovations along multiple cross-border corridors and urban trial sites, under conditions of vehicular traffic, network coverage, service demand, as well as considering the inherently distinct legal, business and social local aspects.
5G ROUTES
5G-ROUTES is a 5G-PPP Phase 3 project whose aim is to validate through robust evidence the latest 5G features and 3GPP specifications (R.16 & R.17) of Connected and Automated Mobility (CAM) under realistic conditions. In particular, it will conduct advanced large-scale field trials of most representative CAM applications to demonstrate seamless functionality across a prominent 5G cross-border corridor (Via Baltica-North), traversing Latvia, Estonia and Finland.
5G-CroCo
TheFifth Generation Cross-Border Control, 5G-CroCo, is a 5G-PPP Phase 3 Innovation Action. 5GCroCo aims to trail 5G technologies in the cross-border corridor along France, Germany and Luxembourg. In addition, 5GCroCo also intends to define new business models that can be built on top of this unprecedented connectivity and service provisioning capacity. Ultimately, 5GCroCo will impact relevant standardization bodies from the telco and automotive industries.
5G-CARMEN
5G for Connected and Automated Road Mobility in the European Union, 5G-CARMEN, will build a 5G-enabled corridor from Bologna to Munich to conduct cross-border trials of 5G technologies in four major use cases: cooperative manoeuvring, situation awareness, video streaming, and green driving. Multi-tenancy and neutral host concepts will be leveraged to deliver a final platform capable of enabling new business models. 5G-CARMEN will complement C-V2X with LTE and C-ITS technologies, targeting interoperability and harnessing a hybrid network.
CONCORDA
The CONCORDA project, launched in October 2017 and funded by the Connecting Europe Facility, will contribute to the preparation of European motorways for connected and automated driving and high-density truck platooning, by providing adequate connected services and technologies in terms of interferences and interoperability.
Global5G
Global5G is a Coordination and Support Action within Europe’s 5G public and private partnership (5G PPP) that is working on both fronts through its focus on vertical industries and small cell deployments. It works closely with the private side of the 5G PPP – the 5G Infrastructure Association (5G-IA) to help boost impacts through diverse working groups and task force activities.
5G MED
5GMED is an innovative H2020-funded project that focuses on a sustainable 5G deployment model for future mobility in the cross-border corridor between Spain and France. Aside from the implementation of four different use cases, 5GMED’s trials seek to enhance roaming transitions across MNOs and neutral hosts for both Cooperative and Connected Automated Mobility (CCAM) and Future Railway Mobile Communications Systems (FRMCS).
NordicWay
NordicWay 2 is a C-ITS pilot project that enables vehicles, infrastructure and network operators to communicate safety hazards and other information from roads in the Nordic countries between different stakeholders. The project is a collaboration between public and private partners in Finland, Norway, Sweden and Denmark and builds on the achievements of the previous NordicWay project.
Ensemble
ENSEMBLE wants to communicate the economic, societal and environmental impact of decisions surrounding platoon forming and dissolving. ENSEMBLE also strives to modernize the transport system by finding an optimal balance between fuel consumption, emission level, travel times and impact on highway traffic flow, resulting in reduced impacts on climate change, air pollution, noise, health and accidents.
ARCADE
ARCADE is a Coordination and Support Action that coordinates consensus-building across stakeholders for sound and harmonised deployment of Connected, Cooperative and Automated Driving (CAD). It supports the development of a common approach to the development, testing, validation and deployment of CAD in Europe and beyond, and aims to establish a joint stakeholders forum in order to coordinate and harmonise automated road transport approaches at a European and international level.
5G BLUEPRINT
5G Blueprint is a H2020-funded project that aims to design and validate technical architecture, business models and governance for interrupted cross-border teleoperated transport based on 5G connectivity. Its objective is to provide a blueprint for operational pan-European deployment of teleoperated transport solutions in the logistics sector, and beyond. It explores the economics of 5G in cross-border transport and the issues of responsibility and accountability within the value chain.
STARDUST
Stardust is an H2020 Smart Cities project, which brings together exemplary models of smart, highly efficient, intelligent, and citizen-oriented cities. The project focuses on intelligent solutions for energy, mobility and ICT, to be integrated into cities together with innovative business models. One of its objectives is to create and deploy open city information platforms, that allows cities to engage actively with each other and to share information. The project’s results will serve as a blueprint for replication across Europe and abroad.
Funded by the German Ministry of Transportation and Digital Infrastructure (BMVI) in the program “Automated and Connected Driving on Digital Test Fields in Germany”, the objective of the project ConVeX is to set up a testbed for the first field tests of 3GPP LTE Release 14 Cellular V2X (C-V2X) and validate its performance and feasibility.
Walkthrough of Multi-Stakeholder; Day 1 C-V2X North American Deployment Guide
The goal of this guidebook is to serve as a straightforward reference for “Day One” 5.9 GHz Channel 183 Cellular Vehicle-to-Everything (C-V2X ) Long-Term Evolution (LTE)-V2X deployment considerations and requirements in the North America.
This Day One guidance intends to reduce the broad array of variables and potential message sets implicit with V2X into a tightly focused cohort of profiles. These commonly understood profiles will hasten deployment timelines and ultimately ensure that vehicles and other road users can effectively communicate in a language that installed infrastructure will understand and properly process.
This walkthrough is aimed at familiarizing deployment stakeholders with the intended content and gaining valuable input to fine-tune the content. With your participation, the guidebook can be a definitive reference source for C-V2X deployment.
Explore use cases, system requirements, and deployment options for integrating Vehicle-to-Everything (V2X) communication technologies with infrastructure sensors.
Outline a framework for developing interoperable, standardised solutions that can operate efficiently within existing Intelligent Transportation System (ITS) spectrums.
Provide the state of the art including demonstrations and market status, regulation, and safety-related aspect regarding uncrewed ground robots (UGRs) as well as common analysis and system/component requirements for UGRs.
Show the methods of communication between UGRs and road users in view of existing gaps in ITS standards, to identify a way forward to incorporate UGRs in future standards.
Outline a vision for integrating a Non-Terrestrial Network (NTN) connectivity layer as a complement to Terrestrial Networks (TN), enhancing coverage and services for connected vehicles.
Build on previous work in 5GAA on the topic of VRUs, focussing on co-existence and interoperability between different companies’ solutions.
Previous showcases and demonstrations have shown the functionality and safety benefits of VRU protection solutions, whereas the objective of VRU-DEMO is to show how these solutions are able to interact with each other.
Explore how to manage misbehaviour in Vehicle-to-Everything (V2X) communication systems, where vehicles and infrastructure directly exchange information.
Provide a business perspective on the Vehicle-to-Network-to-Everything (V2N2X) market, covering market value, stakeholder needs, market growth drivers, and business models observed in various deployments.
The report complements the high-level V2N2X architecture described in the 5GAA white paper ‘Road traffic operation in a digital age’ and the technical report ‘Vehicle-to-Network-to-Everything (V2N2X) Communications; Architecture, Solution Blueprint, and Use Case Implementation Examples.’
Describe an ecosystem for stakeholders on how to realise various V2X applications and use cases (UCs), using cellular network communications in combination with information sharing structures between backend systems.
Clarify the different implementation options of the V2X application in a vehicle and their related implications.
The report complements the V2N2X business perspectives in the 5GAA white paper ‘Road traffic operation in a digital age’ and the technical report ‘Business Perspectives on Vehicle-to-Network-to-Everything (V2N2X) Deployments’.
Propose a framework for trust assessment within CAVs by defining key terms related to trust and trustworthiness, establishing a foundation for building trust between these vehicles and creating a taxonomy for classifying different trust relationships.
Develop a methodology specifically for testing vehicular communication antennas and provide validation measures that account for the unique form factors and characteristics of each vehicle.
This document is an updated version of the Vehicular Antenna Test Methodology technical report published by 5GAA in 2021, available here.
Reflect the automotive and connectivity industries agreement on spectrum allocation for ITS services in the 5.9 GHz band in Europe.
This 5GAA position paper also takes into account the updates from ETSI and CEPT and proposes a deployment band configuration for road-ITS in the 5.9 GHz band.
Propose a transformative approach for automotive stakeholders, emphasizing scalable digital data exchange and a federated architecture to manage road traffic information efficiently.
Recommend a National Roadway Digital Strategy, federated information-sharing structures, and aligned investments.
Provide an overview of how security, privacy, and data quality are addressed for C-V2X using mobile network and backend communications, also known as Vehicle-to-Network-to-Everything (V2N2X) solutions.
The overview of cellular vehicle-to-everything (C-V2X) devices provides a fresh look at the devices currently available on the market or nearing release to capture the evolving C-V2X device landscape.
Completed Work Items – 2023
Objectives:
Work with the Connected Motorcycle Consortium (CMC) to identify potential C-V2X technology solutions for
use cases for powered two-wheelers, focusing on safety aspects
This includes use cases enabled by external connectivity or sensors but also covers use cases that may profit or be enabled by the presence of external computing power, representing an attractive potential market even with low V2X penetration.
Objectives:
Identify and evaluate a selection of evolving and emerging technologies for positioning in line with the 5GAA roadmap for use automotive use cases.
Perform a gap analysis based on automotive use cases concerning selected technologies and provide feedback to relevant SDOs.
Objectives:
Cover a broad range of topics, ranging from the analysis of MEC-relevant use cases and requirements, both from a technical and business perspective, the collaboration with SDOs and industry groups (GSMA), the definition of a reference architecture with related deployment scenarios, an early study on security and privacy aspects, and the drafting of a plan for future experimental activities on MEC for automotive services, including public demos.
Objective:
Highlight the vast array of new business opportunities that 5G will enable for the connected mobility ecosystem by moving the discussion beyond safety and automated driving to other innovative solutions and customer experiences.
Consider realistic evaluation assumptions based on a common understanding between the automotive industry and 5G-V2X technology vendors.
Objectives:
Address the issue of trustworthiness in relation to position information exchanged in the context of V2X communication(how much trust the ITS station can place on the received V2X message containing the positioning information).
Provide an overview of the current standards related to positioning, including the integrity of the position and confidence levels, and review the definitions and metrics used so far.
Objective:
Develop and socialise guidance documents on C-V2X direct communications RSU deployment in the USA with a focus on Day 1 (messages, minimum performance, interoperability and certification) to foster real-world infrastructure deployments.
Objectives:
Accelerate the understanding and adoption of VRU protection services enabled by C-V2X to meet the 5GAA-proposed roadmap for deploying those services.
This objective is addressed by experimentation and demonstrating existing technology and standards. Exploiting and analysing the results of the experiments and demonstrations enabled an assessment of the existing standards and potential standardisation gaps, laying the ground for the mass deployment of VRU protection services.
Completed Work Items – 2022
Objectives:
Stimulate auto industry awareness in Conformity Assessment (CA) and conduct a study of current CA schemes being developed by global industry organizations.
Develop a framework for a harmonized conformance assessment for PC5 applicable to both roadside units and on-board units and attain support from global industry bodies and stakeholders
Objectives:
Define use cases and align the Use Case Roadmap for mass-market deployment of advanced driving use cases, including their technology and spectrum requirements.
Objectives:
Analyze the feasibility of distributed vehicle antennas from an implementation perspective and develop measurement strategies for the analysis.
Analyze the specification impact and the potential necessary changes, and provide output to relevant standardization organizations for possible requirements recommendations.
Objectives:
Secure consumer acceptance and trust in V2X technologies, and perform lawful processing of data while preserving system efficiency to deliver upon the benefits of both basic and advanced V2X services.
Objectives:
Produce a report which describes the actions which 5GAA and its members would need to take to ensure that relevant ETSI and CEPT deliverables are created as needed to support the 5GAA C-V2X Roadmap.
Objectives:
Provide awareness of the current state of misbehaviour developments in standards developing organizations, and propose action items to fill the existing gaps.
Objectives:
Continue incubation of new technical enablers, both use case specific and use case agnostic, with the intent of achieving sufficient maturity for transition to standards developing organizations .
Contribute to SDOs via a Liaison member, bringing up new developments in foundational enablers and protocols for review and consumption by TCs & TFs.
Objectives:
Review and update the specified methodology for the use case analysis for Predictive Quality of Service (QoS) related Service Level Requirements.
Develop potential enhancements to interfaces, signalling and architecture of the Predictive Quality of Service (QoS) system, including but not limited to the aspects related to edge cloud and interoperability.
Objectives:
Detect, propose and evaluate possibilities for telecommunication operators, vendors and further stakeholders to provide what is necessary in order to enable the car OEM to better treat safety.
Investigate processes and tools used to develop and operate the complete chain of the system, deriving a judgement on feasibility of those processes for safety.
Objectives:
Monitor the activities of standards developing organizations and provide regular updates of the ecosystem to 5GAA members to enable an early identification of risks and challenges in standardization.
Objectives:
Introduce tele-operation service provider relevant use cases and scenarios with a V2N2V nature and identify gaps and develop architecture solutions for the development of tele-operated driving services
Study framework requirements of a tele-operation service between vehicle and remote tele-operation centre in cross-mobile network operators, cross-original equipment manufacturers and cross-authority scenarios.
Objectives:
Produce a C-V2X tolling white paper using the experience from the technology and cost analysis to show the tolling industry how to find common benefit in C-V2X and the importance of C-V2X in the future Road Digitalization Roadmap.
Objectives:
Establish use case implementation descriptions realizing use cases’ Service Level Requirements for Automated Valet Parking (AVP), Informative Sensor sharing (HD map Collecting and Sharing), Sensor Sharing for Automated vehicles (AVs) and HD Sensor Sharing for AVs.
Contribute to overarching application system implementation specifications combining the respective use case implementation specifications, including potential interfaces to network layer and security layer.
Objectives:
Update and improve use case descriptions and corresponding Service Level Requirements in already published Technical Reports and White Papers.
Collect, harmonize, align, and integrate new use case descriptions developed in 5GAA and publish the third volume of the Technical Report on C-V2X Use Cases and Service Level Requirements.
Objectives:
Strengthen 5GAA members’ understanding of the state of play of V2X in China and improve the cooperation with and among Chinese members.
Objectives:
Publish an industry specification defining a system profile to enable US deployment of interoperable basic safety services using LTE-V2X direct communication over channel 183.
Objectives:
Establish qualitative general, functional and operational requirements to describe systems for the 5G evolution and beyond that would be useful for automotive solutions.
Provide a unified 5GAA opinion on evolving technologies and the expected transition path for the automotive ecosystem when moving from current 5G technology to its evolution, including potential threats and opportunities.
Completed Work Items – 2021
Objectives:
Gather evidence of the environmental benefits associated with C-V2X and assist in developing this evidence into a compelling narrative.
Assess the benefits of C-V2X deployment (both LTE-V2X and 5G-V2X direct and network-based communications) in terms of emission reduction by 2050 in Europe (and for US and Asia) considering various positive and negative externalities.
Objectives:
Identify and investigate further potential enhancements needed to provide Predictive Quality of Service (QoS) for C-V2X, investigate interoperability of network slices, and provide relevant recommendations to standards developing organizations (SDOs) and industry forums, e.g. 3GPP, ETSI, ISO and GSMA.
Objectives:
Demonstrate the use of multi-access edge computing (MEC) technology for automotive services, for example, when two distinct automotive vendors can truly test at least three use cases involving two distinct mobile network operators (MNOs) employing the network infrastructure provided by two distinct infrastructure vendors.
Increase the flexibility of the current network service architecture, reduce the deployment effort, and increase the interoperability among different stakeholders in the system.
Objectives:
Describe how existing 3GPP methods reduce and improve service interruption due to network reselection.
Provide an original equipment manufacturer (OEM) view on current and desired network reselection.
Objective:
Close the gap of the first spectrum needs study by analyzing several advanced use cases and consider additional items such as security overheads in a second release.
Objective:
Prepare a report which describes the 5GAA’s 5.9 GHz radio channel deployment options for use by LTE-V2X and NR-V2X across all regions, and describe relevant changes to existing regulatory frameworks – or the introduction of new regulatory frameworks – which may be required across all regions.
Objectives:
Update Use Case Technical Reports with updated use case descriptions and develop a white paper for the Wave 2 of use cases.
Provide a new set of use cases with their corresponding service level requirements (SLRs) to be summarized into a new TR.
Objectives:
Study and describe specific and technology dependent use case implementations that fulfil the service level requirements (SLRs) as defined in the technology agnostic 5GAA use case descriptions.
Develop corresponding descriptions for three exemplary use cases: Left Turn Assist (LTA), (Electronic) Emergency Brake (light) Warning (EEBL), and Traffic Jam Warning and Route Information.
Objective:
Define a standardized test method and metrics for vehicular antennas with the dominant emittance toward the outside of the vehicle, focusing on vehicular antennas for telecommunications (2G, 3G, 4G, 5G (< 7.125GHz)), vehicular antennas for direct communication between vehicles to road infrastructure (operating in the designated ITS frequency spectrum (5.9GHz range)), GNSS antennas and 3D-measurements (vehicle-mounted antenna element)
Objectives:
Focus on positioning method for vehicles and vulnerable road users (VRUs) and study both positioning methods employing cellular signals (5G/LTE/C-V2X) and the positioning methods integrated with other technologies.
Study the requirements of positioning, build the understanding of positioning system framework, and offer the corresponding technologies according to the requirements and environments.
Completed Work Items – 2020
Objective:
Analyze V2I deployment costs, including financial, economic and market aspects, to provide guidance to regulators, policymakers and other key stakeholders.
Analyse options with higher and lower levels of V2I-based infrastructure vs. V2N-based approach.
Objective:
Define and analyse the automotive use case requirements in terms of Quality of Service (QoS) using network slicing and analyze business value and identify the specific features required to support the automotive use cases that cover IoT and mobile broadband services.
Objectives:
Define use cases and align the Use Case Roadmap for mass-market deployment of advanced driving use cases, including their technology and spectrum requirements.
Map, assess and contribute to the identification of technical gaps (upper and lower layers, e.g. protocols, Rel. 18 requirements) and forward to relevant standards setting organizations (SSOs).
Objectives:
Define all necessary details for conducting the first 5GAA C-V2X Plugfest in the first quarter of 2019.
Define 5GAA requirements and timelines for conducting successive plugfests after the first quarter of 2019.
Objective:
Facilitate a harmonized industrial evolution and development of enhanced cellular V2X, starting with supporting the basic use cases with the already available C-V2X technologies such as 3GPP Rel-14/15 C-V2X and adopt new technologies for the use cases which cannot be served with current C-V2X
Objectives:
Establish a lightweight security system for C-V2X/5G-V2X communications by conducting a requirements analysis of regional privacy regulations to establish an overview of regional differences and define requirements for each region.
Analyze concepts to simplify the architecture and its impact on regional privacy compliance.
Objectives:
Identify structured and reasonable requirements on mobile networks relevant to spectrum auctioning to accommodate automotive use cases and enable mobile network operator (MNOs) to quantify associated investments.
Analyze licensed spectrum auctioning frameworks and other incentivizing initiatives, such as infrastructure leasing exceptions, where additional investments required by mobile network operators (MNOs) to fulfill requirements associated to automotive use cases are appropriately recognized.
Objectives:
Develop application-level groundwork for the next-generation services (Rel-16) with use cases involving complex message interactions for assisted and autonomous (Ll1-Ll5) and automated driving (supported by infrastructure).
Build prototypes and demonstrate next-generation applications (Rel-16 and further) to gain hands-on experience with some use cases to help stakeholders (OEMs, suppliers, road operators, regulators) understand how 5G NR can implement the concept of connected and automated vehicles for proximal vehicle-to-X coordination and cooperation.
Objective:
Solicit road operators’ views on their role in the deployment of ITS C-V2X services through a free form questionnaire to determine the road operator willingness to participate directly in future 5GAA discussions or events.
Objectives:
Develop and demonstrate a phased vulnerable road user (VRU) protection approach by defining a VRU protection roadmap.
Provide realistic paths for vulnerable road user (VRU) protection using cellular communications, differentiating C-V2X from 802.11p based technologies and set the stage for application of C-V2X to VRU protection.
Objectives:
Define the application layer reference architecture for the V2X service and recommend the application layer reference architecture of the V2X system.
Discuss other architecture related subjects to align with the coordinated 5GAA architecture.
Completed Work Items – 2019
Objective:
Identify, analyze and compare the advantages and disadvantages of V2I deployment using long-range (Uu) mobile networks and RSU (PC5) from a business perspective, reflecting how C-V2X enables synergies with both the transportation and telecommunications infrastructure, which includes leveraging existing mobile network infrastructure for C-ITS.
Objectives:
Work on the CEPT/ETSI-related activities by extending the ITS safety-related band at 5.9 GHz to allow coexistence of LTE V2X and Urban Rail to coexist with ITS-G5 within the 5,875-5,925 MHz frequency band.
Clarify ITS “co-frequency coexistence” statements, include future 3GPP releases and evolution, engage the urban rail community, engage with national administrations.
Objectives:
Develop a trial and interoperability testing framework that defines the deployment scenarios and uses cases, testing methodologies, key performance indicators (KPIs) to be tested.
Develop a 5GAA trial and interoperability testing strategy to capture the 5GAA testing priorities, including setting up a 5GAA testbed environment and planning multi-partner trials covering the priority test cases.
Objective:
Prepare input material for the work in ETSI TC ITS to amend the test specification required to use LTE-V2X as the underlying access layer technology.
Objectives:
Identify and evaluate potential architecture enhancements needed to provide predictable Quality of Service (QoS) for C-V2X in 5G for the automotive industry, utilizing network slicing and edge computing technologies.
Provide guidelines on the design of Network Slice Templates (NST) for the automotive industry that enable support for different categories of C-V2X use cases and 5GAA requirements.
Objectives:
Provide an assessment of the deployment roadmap for use cases.
Establish a mapping between use cases and potential technology candidates, e.g. 3GPP releases, sidelink and/or Uu requirements.
Objectives:
Define a framework for classifying use cases and requirements, identify prioritized use cases, functional requirements and key performance indicators (KPIs).
Perform a gap analysis and specify the extended set of prioritized use cases.
Objectives:
Identify the use cases that benefited from the presence of an application server, and based on the output, explore the V2X application server features and how the application server can be used to perform these use cases.
Completed Work Items – 2018
Objectives:
Develop consensus on operating models for system implementation, taking into account the various requirements arising from the planned networked transport services.
Investigate architectural paradigms such as cloud-based solutions, including edge computing aspects, and analyze solutions from the perspective of verification, confidentiality and privacy, identify requirements and key performance indicators (KPIs), and recommend further actions.
Objective:
Enable the development of a strategy for comprehensive testing, trials, demo pilots, and compliance assessment for V2X using cellular air interface specifications (i.e., including PC5 and Uu).
Objectives:
Promote C-V2X, including existing (LTE-V2X PC5 and Uu interfaces) and future realizations, as the technology of choice for ITS and promote ITS in 5.9 GHz spectrum in some areas, and interact various regulatory organizations.
Comment FO: This WI did not have an acronym.
Objectives:
Promote C-V2X, including its existing (LTE-V2X) and future realizations, as the technology of choice for ITS.
Promote appropriate availability of radio spectrum for C-V2X where necessary in addition to 5.9 GHz, and promote the use of 5.9 GHz for safety-related ITS over other applications (e.g., RLANs, CBTC).
Comment FO: This WI did not have an acronym.
Objectives:
Quantify the future spectrum needs for 5G short-range V2X communications in the context of safety-related ITS spectrum allocation and 5G wide range communications.
Comment FO: This WI did not have an acronym.
Objectives:
Develop recorded test procedures to validate various performance and functional requirements of C-V2X technology covering both the laboratory/test bed and the field test environments.
Objectives:
Quantify future spectrum needs for 5G V2X communications related to ITS spectrum allocation for advanced use cases, including a technology assessment of the amount of radio spectrum needed to meet the key performance criteria related to the low frequency band (e.g. 5.9 GHz) as well as mmWave (e.g. 63–64 GHz) for various advanced ITS applications and a wide-area 4G/5G Uu interface.
Comment FO: This WI did not have an acronym.
Completed Work Items – 2017
Objective:
Establish a high-level plan for C-V2X trials in North America, including definition of trial scope and objectives, identification of suitable/preferred trial facilities, and guidance regarding preferred trial participant composition.
Objective:
Identify existing regional V2X application specifications that have some dependency on specific radio access technologies, such as ITS-G5/11p, and determine how these specifications can be adapted to interoperate with generic radio access technologies and, in particular, with the lower layers of ITS-Cellular specified by 3GPP.
Objective:
Develop the timeline of major functionalities and milestones describing the expected availability of monetizable items and associated business and/or operational model options.
Objectives:
Identify sensor data sharing requirements from planned automated driving applications, including architecture options, requirements and implications.
Conduct a gap analysis of ETSI ITS standards related to existing data objects and complete a technical report outlining the 5GAA framework for sensor data sharing for V2X applications.
Objective:
Prepare a survey report on finalized, on-going and planned test activities, established testbeds and simulation frameworks.
Objective:
Compile V2X communication terms and definitions to be used within the 5GAA.
Completed Work Items – 2023
Objectives:
Work with the Connected Motorcycle Consortium (CMC) to identify potential C-V2X technology solutions for
use cases for powered two-wheelers, focusing on safety aspects
This includes use cases enabled by external connectivity or sensors but also covers use cases that may profit or be enabled by the presence of external computing power, representing an attractive potential market even with low V2X penetration.
Objectives:
Identify and evaluate a selection of evolving and emerging technologies for positioning in line with the 5GAA roadmap for use automotive use cases.
Perform a gap analysis based on automotive use cases concerning selected technologies and provide feedback to relevant SDOs.
Objectives:
Cover a broad range of topics, ranging from the analysis of MEC-relevant use cases and requirements, both from a technical and business perspective, the collaboration with SDOs and industry groups (GSMA), the definition of a reference architecture with related deployment scenarios, an early study on security and privacy aspects, and the drafting of a plan for future experimental activities on MEC for automotive services, including public demos.
Objectives:
Highlight the vast array of new business opportunities that 5G will enable for the connected mobility ecosystem by moving the discussion beyond safety and automated driving to other innovative solutions and customer experiences.
Objectives:
Address the operational aspects of misbehaviour detection, explicitly looking into remediation classification, misbehaviour classification and misbehaviour remediation.
Objectives:
Analyse and evaluate the performance of 3GPP NR-V2X sidelink and draw conclusions and recommendations for its operation, including gap analysis covering future releases and engagements with relevant SDOs.
Objectives:
Address the issue of trustworthiness in relation to position information exchanged in the context of V2X communication(how much trust the ITS station can place on the received V2X message containing the positioning information).
Provide an overview of the current standards related to positioning, including the integrity of the position and confidence levels, and review the definitions and metrics used so far.
Objectives:
Develop and socialise guidance documents on C-V2X direct communications RSU deployment in the USA with a focus on Day 1 (messages, minimum performance, interoperability and certification) to foster real-world infrastructure deployments.
Objectives:
Accelerate the understanding and adoption of VRU protection services enabled by C-V2X to meet the 5GAA-proposed roadmap for deploying those services.
This objective is addressed by experimentation and demonstrating existing technology and standards. Exploiting and analysing the results of the experiments and demonstrations enabled an assessment of the existing standards and potential standardisation gaps, laying the ground for the mass deployment of VRU protection services.
Completed Work Items – 2022
Objectives:
Stimulate auto industry awareness in Conformity Assessment (CA) and conduct a study of current CA schemes being developed by global industry organizations.
Develop a framework for a harmonized conformance assessment for PC5 applicable to both roadside units and on-board units and attain support from global industry bodies and stakeholders
Objectives:
Define use cases and align the Use Case Roadmap for mass-market deployment of advanced driving use cases, including their technology and spectrum requirements.
Objectives:
Analyze the feasibility of distributed vehicle antennas from an implementation perspective and develop measurement strategies for the analysis.
Analyze the specification impact and the potential necessary changes, and provide output to relevant standardization organizations for possible requirements recommendations.
Objectives:
Secure consumer acceptance and trust in V2X technologies, and perform lawful processing of data while preserving system efficiency to deliver upon the benefits of both basic and advanced V2X services.
Objectives:
Produce a report which describes the actions which 5GAA and its members would need to take to ensure that relevant ETSI and CEPT deliverables are created as needed to support the 5GAA C-V2X Roadmap.
Objectives:
Provide awareness of the current state of misbehaviour developments in standards developing organizations, and propose action items to fill the existing gaps.
Objectives:
Continue incubation of new technical enablers, both use case specific and use case agnostic, with the intent of achieving sufficient maturity for transition to standards developing organizations .
Contribute to SDOs via a Liaison member, bringing up new developments in foundational enablers and protocols for review and consumption by TCs & TFs.
Objectives:
Review and update the specified methodology for the use case analysis for Predictive Quality of Service (QoS) related Service Level Requirements.
Develop potential enhancements to interfaces, signalling and architecture of the Predictive Quality of Service (QoS) system, including but not limited to the aspects related to edge cloud and interoperability.
Objectives:
Detect, propose and evaluate possibilities for telecommunication operators, vendors and further stakeholders to provide what is necessary in order to enable the car OEM to better treat safety.
Investigate processes and tools used to develop and operate the complete chain of the system, deriving a judgement on feasibility of those processes for safety.
Objectives:
Monitor the activities of standards developing organizations and provide regular updates of the ecosystem to 5GAA members to enable an early identification of risks and challenges in standardization.
Objectives:
Introduce tele-operation service provider relevant use cases and scenarios with a V2N2V nature and identify gaps and develop architecture solutions for the development of tele-operated driving services
Study framework requirements of a tele-operation service between vehicle and remote tele-operation centre in cross-mobile network operators, cross-original equipment manufacturers and cross-authority scenarios.
Objectives:
Produce a C-V2X tolling white paper using the experience from the technology and cost analysis to show the tolling industry how to find common benefit in C-V2X and the importance of C-V2X in the future Road Digitalization Roadmap.
Objectives:
Establish use case implementation descriptions realizing use cases’ Service Level Requirements for Automated Valet Parking (AVP), Informative Sensor sharing (HD map Collecting and Sharing), Sensor Sharing for Automated vehicles (AVs) and HD Sensor Sharing for AVs.
Contribute to overarching application system implementation specifications combining the respective use case implementation specifications, including potential interfaces to network layer and security layer.
Objectives:
Update and improve use case descriptions and corresponding Service Level Requirements in already published Technical Reports and White Papers.
Collect, harmonize, align, and integrate new use case descriptions developed in 5GAA and publish the third volume of the Technical Report on C-V2X Use Cases and Service Level Requirements.
Objectives:
Strengthen 5GAA members’ understanding of the state of play of V2X in China and improve the cooperation with and among Chinese members.
Objectives:
Publish an industry specification defining a system profile to enable US deployment of interoperable basic safety services using LTE-V2X direct communication over channel 183.
Objectives:
Establish qualitative general, functional and operational requirements to describe systems for the 5G evolution and beyond that would be useful for automotive solutions.
Provide a unified 5GAA opinion on evolving technologies and the expected transition path for the automotive ecosystem when moving from current 5G technology to its evolution, including potential threats and opportunities.
Completed Work Items – 2021
Objectives:
Gather evidence of the environmental benefits associated with C-V2X and assist in developing this evidence into a compelling narrative.
Assess the benefits of C-V2X deployment (both LTE-V2X and 5G-V2X direct and network-based communications) in terms of emission reduction by 2050 in Europe (and for US and Asia) considering various positive and negative externalities.
Objectives:
Identify and investigate further potential enhancements needed to provide Predictive Quality of Service (QoS) for C-V2X, investigate interoperability of network slices, and provide relevant recommendations to standards developing organizations (SDOs) and industry forums, e.g. 3GPP, ETSI, ISO and GSMA.
Objectives:
Demonstrate the use of multi-access edge computing (MEC) technology for automotive services, for example, when two distinct automotive vendors can truly test at least three use cases involving two distinct mobile network operators (MNOs) employing the network infrastructure provided by two distinct infrastructure vendors.
Increase the flexibility of the current network service architecture, reduce the deployment effort, and increase the interoperability among different stakeholders in the system.
Objectives:
Describe how existing 3GPP methods reduce and improve service interruption due to network reselection.
Provide an original equipment manufacturer (OEM) view on current and desired network reselection.
Objective:
Close the gap of the first spectrum needs study by analyzing several advanced use cases and consider additional items such as security overheads in a second release.
Objective:
Prepare a report which describes the 5GAA’s 5.9 GHz radio channel deployment options for use by LTE-V2X and NR-V2X across all regions, and describe relevant changes to existing regulatory frameworks – or the introduction of new regulatory frameworks – which may be required across all regions.
Objectives:
Update Use Case Technical Reports with updated use case descriptions and develop a white paper for the Wave 2 of use cases.
Provide a new set of use cases with their corresponding service level requirements (SLRs) to be summarized into a new TR.
Objectives:
Study and describe specific and technology dependent use case implementations that fulfil the service level requirements (SLRs) as defined in the technology agnostic 5GAA use case descriptions.
Develop corresponding descriptions for three exemplary use cases: Left Turn Assist (LTA), (Electronic) Emergency Brake (light) Warning (EEBL), and Traffic Jam Warning and Route Information.
Objective:
Define a standardized test method and metrics for vehicular antennas with the dominant emittance toward the outside of the vehicle, focusing on vehicular antennas for telecommunications (2G, 3G, 4G, 5G (< 7.125GHz)), vehicular antennas for direct communication between vehicles to road infrastructure (operating in the designated ITS frequency spectrum (5.9GHz range)), GNSS antennas and 3D-measurements (vehicle-mounted antenna element)
Objectives:
Focus on positioning method for vehicles and vulnerable road users (VRUs) and study both positioning methods employing cellular signals (5G/LTE/C-V2X) and the positioning methods integrated with other technologies.
Study the requirements of positioning, build the understanding of positioning system framework, and offer the corresponding technologies according to the requirements and environments.
Completed Work Items – 2020
Objective:
Analyze V2I deployment costs, including financial, economic and market aspects, to provide guidance to regulators, policymakers and other key stakeholders.
Analyse options with higher and lower levels of V2I-based infrastructure vs. V2N-based approach.
Objective:
Define and analyse the automotive use case requirements in terms of Quality of Service (QoS) using network slicing and analyze business value and identify the specific features required to support the automotive use cases that cover IoT and mobile broadband services.
Objectives:
Define use cases and align the Use Case Roadmap for mass-market deployment of advanced driving use cases, including their technology and spectrum requirements.
Map, assess and contribute to the identification of technical gaps (upper and lower layers, e.g. protocols, Rel. 18 requirements) and forward to relevant standards setting organizations (SSOs).
Objectives:
Define all necessary details for conducting the first 5GAA C-V2X Plugfest in the first quarter of 2019.
Define 5GAA requirements and timelines for conducting successive plugfests after the first quarter of 2019.
Objective:
Facilitate a harmonized industrial evolution and development of enhanced cellular V2X, starting with supporting the basic use cases with the already available C-V2X technologies such as 3GPP Rel-14/15 C-V2X and adopt new technologies for the use cases which cannot be served with current C-V2X
Objectives:
Establish a lightweight security system for C-V2X/5G-V2X communications by conducting a requirements analysis of regional privacy regulations to establish an overview of regional differences and define requirements for each region.
Analyze concepts to simplify the architecture and its impact on regional privacy compliance.
Objectives:
Identify structured and reasonable requirements on mobile networks relevant to spectrum auctioning to accommodate automotive use cases and enable mobile network operator (MNOs) to quantify associated investments.
Analyze licensed spectrum auctioning frameworks and other incentivizing initiatives, such as infrastructure leasing exceptions, where additional investments required by mobile network operators (MNOs) to fulfill requirements associated to automotive use cases are appropriately recognized.
Objectives:
Develop application-level groundwork for the next-generation services (Rel-16) with use cases involving complex message interactions for assisted and autonomous (Ll1-Ll5) and automated driving (supported by infrastructure).
Build prototypes and demonstrate next-generation applications (Rel-16 and further) to gain hands-on experience with some use cases to help stakeholders (OEMs, suppliers, road operators, regulators) understand how 5G NR can implement the concept of connected and automated vehicles for proximal vehicle-to-X coordination and cooperation.
Objective:
Solicit road operators’ views on their role in the deployment of ITS C-V2X services through a free form questionnaire to determine the road operator willingness to participate directly in future 5GAA discussions or events.
Objectives:
Develop and demonstrate a phased vulnerable road user (VRU) protection approach by defining a VRU protection roadmap.
Provide realistic paths for vulnerable road user (VRU) protection using cellular communications, differentiating C-V2X from 802.11p based technologies and set the stage for application of C-V2X to VRU protection.
Objectives:
Define the application layer reference architecture for the V2X service and recommend the application layer reference architecture of the V2X system.
Discuss other architecture related subjects to align with the coordinated 5GAA architecture.
Completed Work Items – 2019
Objective:
Identify, analyze and compare the advantages and disadvantages of V2I deployment using long-range (Uu) mobile networks and RSU (PC5) from a business perspective, reflecting how C-V2X enables synergies with both the transportation and telecommunications infrastructure, which includes leveraging existing mobile network infrastructure for C-ITS.
Objectives:
Work on the CEPT/ETSI-related activities by extending the ITS safety-related band at 5.9 GHz to allow coexistence of LTE V2X and Urban Rail to coexist with ITS-G5 within the 5,875-5,925 MHz frequency band.
Clarify ITS “co-frequency coexistence” statements, include future 3GPP releases and evolution, engage the urban rail community, engage with national administrations.
Objectives:
Develop a trial and interoperability testing framework that defines the deployment scenarios and uses cases, testing methodologies, key performance indicators (KPIs) to be tested.
Develop a 5GAA trial and interoperability testing strategy to capture the 5GAA testing priorities, including setting up a 5GAA testbed environment and planning multi-partner trials covering the priority test cases.
Objective:
Prepare input material for the work in ETSI TC ITS to amend the test specification required to use LTE-V2X as the underlying access layer technology.
Objectives:
Identify and evaluate potential architecture enhancements needed to provide predictable Quality of Service (QoS) for C-V2X in 5G for the automotive industry, utilizing network slicing and edge computing technologies.
Provide guidelines on the design of Network Slice Templates (NST) for the automotive industry that enable support for different categories of C-V2X use cases and 5GAA requirements.
Objectives:
Provide an assessment of the deployment roadmap for use cases.
Establish a mapping between use cases and potential technology candidates, e.g. 3GPP releases, sidelink and/or Uu requirements.
Objectives:
Define a framework for classifying use cases and requirements, identify prioritized use cases, functional requirements and key performance indicators (KPIs).
Perform a gap analysis and specify the extended set of prioritized use cases.
Objectives:
Identify the use cases that benefited from the presence of an application server, and based on the output, explore the V2X application server features and how the application server can be used to perform these use cases.
Completed Work Items – 2018
Objectives:
Develop consensus on operating models for system implementation, taking into account the various requirements arising from the planned networked transport services.
Investigate architectural paradigms such as cloud-based solutions, including edge computing aspects, and analyze solutions from the perspective of verification, confidentiality and privacy, identify requirements and key performance indicators (KPIs), and recommend further actions.
Objective:
Enable the development of a strategy for comprehensive testing, trials, demo pilots, and compliance assessment for V2X using cellular air interface specifications (i.e., including PC5 and Uu).
Objectives:
Promote C-V2X, including existing (LTE-V2X PC5 and Uu interfaces) and future realizations, as the technology of choice for ITS and promote ITS in 5.9 GHz spectrum in some areas, and interact various regulatory organizations.
Comment FO: This WI did not have an acronym.
Objectives:
Promote C-V2X, including its existing (LTE-V2X) and future realizations, as the technology of choice for ITS.
Promote appropriate availability of radio spectrum for C-V2X where necessary in addition to 5.9 GHz, and promote the use of 5.9 GHz for safety-related ITS over other applications (e.g., RLANs, CBTC).
Comment FO: This WI did not have an acronym.
Objectives:
Quantify the future spectrum needs for 5G short-range V2X communications in the context of safety-related ITS spectrum allocation and 5G wide range communications.
Comment FO: This WI did not have an acronym.
Objectives:
Develop recorded test procedures to validate various performance and functional requirements of C-V2X technology covering both the laboratory/test bed and the field test environments.
Objectives:
Quantify future spectrum needs for 5G V2X communications related to ITS spectrum allocation for advanced use cases, including a technology assessment of the amount of radio spectrum needed to meet the key performance criteria related to the low frequency band (e.g. 5.9 GHz) as well as mmWave (e.g. 63–64 GHz) for various advanced ITS applications and a wide-area 4G/5G Uu interface.
Comment FO: This WI did not have an acronym.
Completed Work Items – 2017
Objective:
Establish a high-level plan for C-V2X trials in North America, including definition of trial scope and objectives, identification of suitable/preferred trial facilities, and guidance regarding preferred trial participant composition.
Objective:
Identify existing regional V2X application specifications that have some dependency on specific radio access technologies, such as ITS-G5/11p, and determine how these specifications can be adapted to interoperate with generic radio access technologies and, in particular, with the lower layers of ITS-Cellular specified by 3GPP.
Objective:
Develop the timeline of major functionalities and milestones describing the expected availability of monetizable items and associated business and/or operational model options.
Objectives:
Identify sensor data sharing requirements from planned automated driving applications, including architecture options, requirements and implications.
Conduct a gap analysis of ETSI ITS standards related to existing data objects and complete a technical report outlining the 5GAA framework for sensor data sharing for V2X applications.
Objective:
Prepare a survey report on finalized, on-going and planned test activities, established testbeds and simulation frameworks.
Objective:
Compile V2X communication terms and definitions to be used within the 5GAA.
Active Work Items
This work item will drive the study on the trends and evolution of current technologies. The objectives of the work item consist of:
Establish qualitative general, functional and operational requirements that would describe systems for the5G evolution and beyond that would be useful for automotive solutions,
Conduct a SWOT analysis with the automotive industry with respect to evolving technologies in a timeframe of 5, 10 and/or 15 years,
Providing a unified 5GAA opinion (in the form of a white paper) on evolving technologies and the expected transition path for the Automotive
Ecosystem when moving from current 5G to its evolution, including the potential threats and opportunities.
This Work Item assesses the required communication technology to support Automated Valet Parking (AVP) as specified by the 5GAA Use Cases T-210023, T-190139 and T-190140 and their respective Service Level Requirements (SLR).
This Work Item assesses the required communication technology to support Automated Valet Parking (AVP) as specified by the 5GAA Use Cases T-210023, T-190139 and T-190140 and their respective Service Level Requirements (SLR).
This Work Item consists of:
Stimulate Auto Industry awareness in CA
Study of current CA schemes being developed by global industry organisations
Develop a framework for harmonized PC5 CA applicable to both RSUs and OBUs and attain support from global industry bodies and stakeholders
A joint Work Item with the Connected Motorcycle Consortium, this WI will look into CV2X enabled use cases for motorcycles mainly focusing on safety
Definition of all Use Cases and alignment of UC roadmap for mass-market deployment of advanced driving Use Cases, inc. their technology and spectrum requirements.
A comprehensive overview of the privacy and data protection regulatory framework.
A report which describes the actions which 5GAA and its members would need to take in order to ensure that relevant ETSI and CEPT deliverables are created as needed to support the 5GAA C-V2X Roadmap.
usage of predictive edge analytics and situation awareness for closed-loop adaptation in multi-MNO and multi-OEM MEC scenarios (synergy and inputs from NESQO,eNESQO,V2XSRA PRESA);
This Work Item aims at discussing attractive selling points for CV2X for both final customers and OEMs beyond the usually discussed ADAS and safety features.
This Work Item:
Provides awareness of current state of MBD developments in SDOs and trials/demos, and proposes action items to fill the existing gaps.
Delivers content on: (1) concepts and terms definitions, V2X message stack, (2) overview of related/existing work and gaps, (3) Threat and Risk Assessment (TARA) and requirements for Day-1 applications, (4) determination of application domain-specific mitigation, and (5) legal aspects and recommendation of a strategy.
This Work Item aims at:
Continue incubation of new technical enablers, both UC specific and agnostic for transition to SDOs.
Contribute to SDOs via a Liaison member & Individual contributors from member companies will work directly on relevant standards projects on an ongoing basis.
This Work Item consists of:
Review and update the specified methodology for the UC’ analysis for Predictive QoS related SLRs.
Study application and system reactions.
Develop potential enhancements to interfaces, signalling and architecture of the P-QoS system, including but not limited to the aspects related to edge cloud and interoperability.
Monitor SDOs activities on and provide regular updates of the ecosystem to 5GAA members. This will enable early identification of risks and challenges in standardisation.
Prepare contributions by 5GAA to critical SDOs.
Support WGs and WIs intending to provide inputs to SDOs.
Support 5GAA messaging in SDO related events.
This Work Item:
Explore the use of C-V2X to enable electronic toll collection in China (ETC)
Constructive advice about Investment, Performance Improvement and migration for C-V2X Tolling Implementation in China
Find common benefits between Road Industries and 5GAA
Accelerate the understanding and adoption of VRU protection services enabled by C-V2X” in order to meet the 5GAA-proposed roadmap for the deployment of those services.
Completed Work Items – 2020
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Completed Work Items – 2020
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Working Groups
5GAA’s short and long term goals contribute to the same ambition: Connected Mobility and touch upon many of the ecosystem’s components.
Working Groups
Define end-to-end view on use cases and derive technical requirements and performance indicators for the certification of connected mobility solutions (e.g. on communication architecture, radio protocols, radio parameters, frequency spectra and carrier aggregation combinations). Ensure interoperability for V2X and other affected technologies.
Define, develop and recommend system architectures and interoperable end-to-end solutions to address use cases and Services of Interest. Reviewing currently available solutions in technical areas such as wireless air interface technologies, wireless network deployment models, radio access networks and networked clouds, connectivity and device management or security, privacy and authentication.
Andreas Andrae
(Continental Automotive Technologies GmbH)
Chair
Vice-chair
Evaluate and validate end-to-end solutions through testbeds. Globally orchestrating and harmonising conformity and interoperability assessments to ensure that new C-V2X products conform to existing standards and are interoperable with each other. Manage regional interoperability event programmes in cooperation with regionally established organisations. Promote commercialisation and standardisation via pilots and large-scale trials by selecting the use cases in conjunction with go-to-market strategies. This includes multi-phase / multi-year planning with prioritisation.
Act as ‘Industry Specification Group’, providing recommendations, contributions and positions to ETSI, 3GPP and other standards development organisations. Agree on spectrum requirements for V2X in ITS, MBB and unlicensed bands. Represent the association vis-à-vis other industry organisations.
Agree on criteria for business models. Identify involved organisations and companies, and prioritise them. Draft exemplary go-to-market plan as straw man function for agreed use cases under test and business models. Agree on how to best achieve a global approach to certification of the target connected mobility solutions.
Agree on common 5GAA positions in relation to policy and regulatory matters at a national, regional and (whenever possible) global level to secure market access, foster technology innovation and investment, and support commercial deployment, developing a common policy strategy among industry stakeholders, public authorities, and subject matter expert members.
Review currently available solutions in relevant technical areas and identify gaps toward comprehensive secure end-to-end solutions and specifications for the use cases and services of interest as defined by the “Use Cases and Technical Requirements” WG.
The 5G Automotive Association applauds FCC adoption of C-V2X rules in the 5.9 GHz band
WASHINGTON, D.C., 21 November 2024 – The 5G Automotive Association (5GAA) welcomes the U.S. Federal Communications Commission’s adoption of 5.9 GHz band rules allowing cellular vehicle-to-everything (C-V2X) equipment to support roadway safety communications technologies.
The dedicated spectrum will support C-V2X direct communications between vehicles and roadway infrastructure, cyclists, pedestrians and other vulnerable road users. It brings to closure a process initiated by 5GAA’s first petition for a waiver to the FCC in November 2018, requesting that C-V2X direct communications be allowed to operate at 5.9 GHz.
“Today’s FCC decision will enhance roadway, cyclist and pedestrian safety by enabling highly reliable and low-latency C-V2X communications,” said John Kwant, Executive Director, Americas, for 5GAA. “Now, for the first time in the United States, C-V2X can operate freely in the 5.9 GHz dedicated transportation safety spectrum in tandem with network connectivity to provide unparalleled safety alerts for greatly enhanced vehicle efficiency and awareness of roadway threats near or far, seen and unseen.”
The C-V2X ecosystem gains a new momentum with the FCC decision providing regulatory certainty to willing deployers and fueling the upcoming US DOT National V2X Deployment Plan, which 5GAA expects to set a clear vision and milestones to achieve the vision zero goal.
As the leading C-V2X industry proponent, 5GAA looks forward to working with its members and the greater automotive ecosystem to deploy this technology across the U.S.
About 5GAA
The 5G Automotive Association (5GAA) is a global, cross-industry organization of over 120 members, including leading global automakers, Tier-1 suppliers, mobile operators, semiconductor companies, and test equipment vendors. 5GAA members work together to develop end-to-end solutions for future mobility and transport services. 5GAA is committed to helping define and develop the next generation of connected mobility, automated vehicles, and intelligent transport solutions based on C-V2X. For more information, visit our website.
5G Automotive Association is pleased to invite you to our online session, “Global MEC technology to support automotive services“, taking place on April 4th from 4:00 to 5:30 PM (CET).
The 5GAA approach to MEC (Multi-access Edge Computing) technology for automotive services follows car industry needs to consider multi-operator, multiple car maker, and multi-vendor scenarios.
In order to support global MEC deployments, 5GAA started working since 2019 on this area by targeting live trials to easily demonstrate MEC applications and use cases in those scenarios of interest (MEC4AUTO approach).
This webinar will provide a comprehensive overview of the many recent activities in this field, including architectural insights inspired by live trials implementations with 5G networks, interoperability and testing aspects, business and market considerations, but also technology aspects, standardization impacts, usage of edge predictive analytics, network slicing and cybersecurity aspects for the targeted scenarios.
Attendants of the webinar will get an updated view of real-life issues related to global MEC deployments, both from technical and business perspectives, together with an anticipation of future 5GAA activities in this field.
The 5G Automotive Association (5GAA) will host a technology demonstration event in Berlin on 24 October, showcasing the potential of Cellular Vehicle-to-Everything (C-V2X) technology to redefine mobility across Europe. The event will take place with 5GAA members, leaders from the automotive, telecommunications and technology sectors; it will feature over 10 indoor and outdoor demonstrations that address both critical safety and advanced applications.
C-V2X leverages cellular networks to connect vehicles with each other, infrastructure, and pedestrians, aiming to enhance safety and convenience on the roads. This technology has gained momentum globally, with favourable legislative frameworks in Europe, the U.S. and beyond, and commitment from automakers. This signifies a robust ecosystem that is ready to leverage a huge amount of already existing connected vehicles and deploying further C-V2X solutions at scale.
In countries like Germany, traffic accidents remain a significant concern, with the country alone recording 2.5 million incidents in 2023 and pedestrian safety a growing issue. It is also estimated that up to 40% of traffic in German urban centres stems from drivers searching for parking. C-V2X is positioned to address these challenges.
The Berlin demo event will build upon the 5GAA demonstrations held last year in Detroit, which revolved around vulnerable road user protection. This year, the focus will shift to showcasing similar and new use cases in a European environment, utilising existing European mobile infrastructure.
The event will be preceded by the 5GAA conference titled “Scaling Up Connected Mobility: What’s Next for Germany and Europe?” This combined event offers a unique platform for attendees to engage with industry leaders and stakeholders.
Journalists interested in attending can reach out to marcom@5gaa.org.
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