5GAA Showcases Cutting-Edge C-V2X Technology, Pioneering the Future of Vehicle Connectivity

5GAA Showcases Cutting-Edge C-V2X Technology, Pioneering the Future of Vehicle Connectivity

Detroit, October 26th, 2023 — The 5G Automotive Association (5GAA) welcomes you to an exciting display of cutting-edge innovation at the forefront of vehicle connectivity. The event, held at the Mcity Test Facility at the University of Michigan in Ann Arbor, featured a series of live demonstrations and a static showcase that underline the potential of C-V2X technology in making our roads safer and our journeys more secure.

Our live demonstrations are designed to present ready-to-deploy applications that rely on seamless communications, service interoperability, real-time safety enhancements, and driving assistance. These showcases will immerse you in real-life scenarios, both on-track and on open roads, highlighting the remarkable capabilities of Cellular Vehicle-to-Everything (C-V2X) direct communications and mobile network communications. From real-time collision warnings to lane merge notifications, curve speed alerts on open roads, and Vulnerable Road User (VRU) protection in urban environments, our demonstrations underscore our unwavering commitment to making our roads safer and our journeys more secure.

“In the fast-paced world of vehicle connectivity, 5GAA is at the forefront, showcasing the immense potential of C-V2X technology”, said Maxime Flament, 5GAA CTO. “We are dedicated to making our roads safer and our journeys more secure. The live demonstrations and showcases in Detroit reflect our commitment to reducing road fatalities and creating a smoother, safer driving experience for all road users.” 

Highlights of the Event:

Day One Safety Benefits of C-V2X Direct

Organized by Qualcomm, Commsignia, and the University of Michigan Transportation Research Institute, this immersive experience will showcase vehicle connectivity first-hand. Equipped with an onboard unit (OBU), the vehicle will demonstrate several safety benefits of C-V2X (Cellular Vehicle-to-Everything) direct communication from day one leveraging Roadside Units (RSUs). As the vehicle navigates the road, the driver will receive various warning messages, including:

> Real-time alerts for forward collision and electronic emergency brake lights.

> Notifications to merge lanes when approaching a construction work zone.

> Curve speed warnings in open-road environments.

The technology is primarily focused on critical safety scenarios to reduce road fatalities. It serves as a testament to the possibility of achieving a smooth and secure driving experience for all road users.

Interoperability of VRU Protection Services via Network Connection

In recent years, members of the 5GAA have collaborated to research, examine, and test potential solutions aimed at improving the safety of Vulnerable Road Users (VRUs). Our collective efforts will demonstrate the compatibility of various VRU protection services through a live showcase. During this demonstration, organized by Anritsu, Bosch, Commsignia, Keysight, T-Mobile, LG, and Verizon, participants will have the opportunity to receive safety messages, such as alerts, which are transmitted to vehicles in advance to alert drivers about the presence of pedestrians nearby. These alerts are delivered efficiently via mobile network communication with minimal latency, thanks to innovative technologies like Multi-access Edge Computing (MEC). Furthermore, through a “digital twin” with advanced software modeling, participants can witness first-hand how network planning and performance can be estimated. Various network Key Performance Indicators (KPIs) will be closely monitored to ensure optimal performance for VRU safety applications.

Authentication as a Service (AaaS) – Static Showcase

At the core of Verizon and LG’s presentation lies AaaS, a dynamic platform built on industry standards. This platform plays a crucial role in managing the security lifecycle of V2X (Vehicle-to-Everything) communication by offering:

> Provisioning of new services and information.

> Operational functions, including activation, detection of misbehavior, safety-enhancement systems, and intelligent filtering.

> The capability to revoke access in the event of network security threats.

The presentation showcases a V2N2V (Vehicle-to-Network-to-Vehicle) scenario, where Basic Safety Messages are transmitted via the Verizon 5G network from the vehicle to the vRSU (Virtual Roadside Unit), integrated within Verizon’s Multi-Access Edge Computing (MEC) infrastructure. These messages are then routed back to the vehicle.

This system protects the confidentiality of your data meeting the end-to-end latency requirements.

Smart City and Connected Infrastructure using Uu-based Solution

Verizon and HAAS Alert are showcasing a display of ”connected safety” digital alerting examples.

While the network-connected demonstration vehicle navigates the track, it receives messages from the cloud, which are shown on the infotainment screen well in advance. This gives the driver a foresight window of 15-20 seconds before encountering any possible hazards.

Passengers will encounter the following scenarios:

> An approaching emergency vehicle

> An upcoming active School Zone

> An alert for a pedestrian crossing

We invite you to join us on this remarkable journey to experience the benefits of connected vehicles. Together, we have the potential to reduce road fatalities and create a smoother, safer driving experience for all.

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 vehicle, and intelligent transport solutions based on C-V2X. For more information, visit our website.

About the University of Michigan

The University of Michigan is one of the nation’s top public universities, and has been a leader in research, learning and teaching for more than 200 years. It is home to several research centers focused on mobility and transportation. Mcity is a public-private mobility research partnership led by U-M and operates the Mcity Test Facility, a purpose-built, real-world environment for testing advanced mobility vehicles and technologies. The U-M Transportation Research Institute is one of the largest research institutes at U-M and a partner of choice for industry leaders, foundations, and government agencies. The Center for Connected and Automated Transportation, based at UMTRI, is the U.S. Department of Transportation’s University Transportation Center for the Midwest region. 

Media Contact

Raluca Tarcea

Communications Manager

raluca.tarcea@5gaa.org

5GAA Publishes Comprehensive Guidance for Deployment of C-V2X Day 1 Safety Services 

5GAA Publishes Comprehensive Guidance for Deployment of C-V2X Day 1 Safety Services 

Detroit, October 23 – A coalition of industry leaders, including the 5G Automotive Association (5GAA) and Crash Avoidance Metrics Partners (CAMP LLC), has released a comprehensive guidance aimed at infrastructure owners and operators for the deployment of Vehicle-to-Everything (V2X) technology, specifically focused on C-V2X direct communication at 5.9 GHz in the United States (US). 

The guidance, developed by 5GAA, benefitted from essential input from ITS ecosystem stakeholders and partners, including the Utah Department of Transportation, National Electrical Manufacturers Association (NEMA), OmniAir, the Intelligent Transportation Society of America (ITS America), and researchers from the University of Michigan.

The document is a valuable reference for “Day One” C-V2X deployment by gathering established requirements and new considerations, and it provides compatible guidance for several Day 1s, ranging from road infrastructure owner-operators seeking early deployment based on waivers, through Day 1 where automakers deploy. The primary target audience includes road Infrastructure Owners and Operators (IOOs), who are pivotal in taking up C-V2X technology for transportation safety and efficiency. 

The 5GAA guidance report focuses on C-V2X direct communications and streamlines this complex field into commonly understood profiles, simplifying deployment timelines, and ensuring effective communication between vehicles and infrastructure.  

It also provides findings from various guidelines, standards, and deployment projects to offer a straightforward guide for Vehicle-to-Vehicle (V2V) and Vehicle-to-Infrastructure (V2I) connectivity required for Day One Connected Vehicle (CV) applications. In addition, it includes guidance and a profile on the messages that can be sent.  

The complementary nature of both modes of communication (C-V2X and V2N) can deliver a richer experience for end-to-end use cases by leveraging both local short-range and cloud-based long-range connectivity. 

Key highlights of the report include: 

  • Clarifying expectations for a swift V2X roadside unit deployment, providing concise and accessible materials for all participants in safe traffic communications. 
  • Identifying a limited but crucial set of messages, interoperability needs, and performance requirements to expedite deployments, ensuring an orderly and safety-critical message set. 
  • Providing SAE J3161 communication profiles and parameters, creating a standard set of rules for optimal channel access and message usage. 

The report aims to establish V2X communications that support interoperability and data integrity, delivering the necessary performance for various Day One applications. It also offers insights into potential Day Two messages, preparing the V2X community for the next deployment stage. 

Find the complete report here.

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 vehicle, and intelligent transport solutions based on C-V2X. For more information, visit our website.

Media Contact

5GAA Communications Team: marcom@5gaa.org

Frequently Asked Questions

General Information about 5GAA

The 5G Automotive Association (5GAA) is a global, cross-industry organisation bridging the gap between automotive, technology, and telecom industries and promoting the C-V2X technology (Cellular vehicle-to-everything), a comprehensive platform for connected vehicles, safety, and transportation.

5GAA was created in September 2016 by its eight founding members: AUDI AG, BMW Group, Daimler AG, Ericsson, Huawei, Intel, Nokia and Qualcomm Incorporated.

5GAA unites now more than 130 companies diverse both in terms of geography and expertise. These include automotive manufacturers, tier-1 suppliers, chipset/communication system providers, mobile operators and infrastructure vendors. Find the full list of members here

5GAA’s members are committed to helping define and develop global solutions for the next generation of connected mobility and automated vehicle solutions to address the complex challenge of providing enhanced safety, sustainability, and convenience for all road users. Read more about 5GAA’s mission here.

Since its creation, 5GAA has helped transform C-V2X technology from a standard into a market reality and has established 5G as the reference for future automotive connectivity. The association is now regarded as the global lead organisation on automotive connectivity. (link to the 5th anniversary report)

Major publications, reports and white papers include:

5GAA is working on the basis of 5 association pillars: as the first and overarching pillar, 5GAA aims to bring value to its members. Four main pillars help to achieve this overarching pillar: (1) enable deployment by lifting barrier and accelerating time-to-market, (2) contribute to standardisation via pre-standardisation efforts of automotive connectivity, (3) advocate policymakers by addressing regional opportunities and threats, and (4) leverage innovative solutions within the larger connected automotive community.

The association is contribution-driven and only exists through collaborations and communications between its members.

Between 2019 and 2021, 5GAA’s work focused on eight priority areas: security and privacy, road infrastructure, Vulnerable road users, positioning, interoperability, cellular network, and flexible architecture and technology evolution. All of the priority areas are contributing to the association’s vision: “connected mobility for people, vehicles, and transport infrastructure”. You can find more information on 5GAA’s work here.

The association includes an Executive Committee, a Board, and a General Assembly. The Board, composed of eighteen members elected every year by the General Assembly, supervises and advises the Executive Committee in all respects, in particular with regard to strategic guidance. The Executive Committee is the legal representative body of the association and is responsible for its day-to-day management. You can know more about the 5GAA’s leadership and Board at this link.

In order to address society’s transport needs, 5GAA has seven working groups focused on:

  • Use Cases and Technical Requirements
  • System Architecture and Solution Development
  • Evaluation, Testbeds, and Pilots
  • Standards and Spectrum
  • Regulatory and Public Affairs
  • Security and Privacy

See more

5GAA Working Groups are overseeing the work done in the work programme made of a large number of Work Items. Work Items are time-limited targeted activities which may report to more than one Working Group depending on their tasks. Outputs from Work Items can take many different shapes: Technical Report, Technical Specifications, White Papers, measurements, prototypes and/or demonstrations.

5GAA believe true ecosystem cooperation must be achieved around sustainable business models. An ecosystem that would gather the whole value-chain of connected mobility, seamlessly interacting with partners and standardisation bodies.

5GAA collaborates with different actors active in many fields: Standardisation bodies, Testing, Conformance and Interoperability organisations, Promotion Groups and Think Tanks, and regional organisations. 5GAA is also part of several European and national projects related to 5G networks and connected mobility. You can discover more on 5GAA’s partnerships here.

Friends of 5GAA is a group subscribing to a global newsletter addressing issues of interest and concerns to organisations that are not members but would like to keep up-to-date on 5GAA’s activities: typically road operators, ministries, public bodies, etc. They can also engage with the 5GAA members to identify synergies and business opportunities to accelerate and streamline the deployment of connected automotive.

Questions about Cellular-Vehicle-to-Everything (C-V2X) technology

Cellular-V2X (C-V2X), as initially defined as LTE V2X in 3GPP Release 14, is a technology that allows vehicles to communicate with each other and the wider transport ecosystem.
It includes Vehicle-to-Vehicle (V2V), Vehicle-to-(Roadway) Infrastructure (V2I) and Vehicle-to-Pedestrian (V2P) direct communication without necessarily relying on network involvement for scheduling. This is complemented by the connectivity to the mobile network (V2N) using LTE.

C-V2X has a clear evolution path to 5G (also called 5G New Radio (NR)) for both modes of operation mentioned above.  C-V2X direct communication has an evolution path to 5G-NR based C-V2X, and LTE- network communication has its evolution patch to 5G-NR network communication.

5GAA supports the idea that 5G will be the ultimate platform to enable C-ITS and the provision of V2X. 5G will be able to better carry mission-critical communications for safer driving, and further support enhanced V2X communications and connected mobility solutions.

V2X includes:

  • V2V: Vehicle to Vehicle communications – Direct and short-range communication between Vehicles for critical safety applications – providing 360o non-line-of-sight awareness for improved safety;
  • V2P: Direct and short-range communication between Vehicles and Pedestrians – including all “vulnerable” road users such as cyclists;
  • V2I: Direct and short-range communication between Vehicles and Infrastructure – allowing the vehicle to connect to and receive road traffic information (signage, traffic lights etc.);
  • V2N: Network communications between Vehicles and Network (i.e. the cloud) – providing vehicles with advanced traffic routing, long range information and cloud-based services, e.g. Infotainment.

C-V2X technology combines two complementary modes of communication:

Direct & short-range connectivity for safety applications without requiring network coverage or subscription. This operates in designated ITS spectrum bands (e.g. ITS 5.9 GHz) also known as “LTE-PC5”. C-V2X direct communication gives vehicles the ability to communicate with each other (V2V), to pedestrians (V2P), to roadway infrastructure (V2I), enabling safer, more autonomous vehicles of the future;

Connectivity via regular cellular networks for non-safety applications like navigation and infotainment in the car. This operates in the traditional mobile broadband licensed spectrum – also known as “LTE-Uu”. C-V2X network communication allows vehicles to communicate with the network (V2N).

In China, cars enabled with Cellular-Vehicle-to-Everything (C-V2X) technology are already available. To this date, 14 C-V2X vehicles have been commercialised so far. In the United States, Ford has committed to deploy C-V2X in all new vehicle models from early 2022.  Finally, in Europe, BMW and Samsung are set to offer 5G/CV2X in their iNEXT vehicle this year, in 2021.

In 2020, 5GAA released a Visionary 2030 Roadmap outlining the vehicle-to-everything (V2X) use cases to improve traffic efficiency and road safety around the world expected in the next decade. Close to 200 million ‘connected vehicles’ are already on the roads worldwide, and a growing number of vehicles with the ability to exchange traffic and road condition information over cellular networks. Further progress in the coming years will pivot around 5G-V2X use cases for more efficient and safe driving. From 2025 onwards, 5GAA expects the mass rollout of more advanced automated driving and safety use cases supported by vehicle connectivity. Additional automated driving functionalities are anticipated from 2026.

5G for automotive has the potential to have the most revolutionary impact by saving millions of lives by reducing road accidents. Furthermore, it will have a positive impact by producing more efficient journeys, minimising travel times, traffic jams and improving environmental footprints. Unlike other competitive technologies, C-V2X leverages both cost-effective direct short-range communications and long-range cellular connectivity. This allows more cost-effective use of an integrated connectivity platform to address the broadest range of safety features.

The cost-efficiency of C-V2X is determined mainly by the three following reasons:

C-V2X integration with existing cellular modem: C-V2X can deliver both short-range safety V2X applications and long-range network communications via the one modem, which accelerates time to market and market penetration, contributing to enhanced safety and reducing cost;

For pedestrians, C-V2X will also find its way into consumer-electronics smartphones both for use by pedestrians, cyclists and unequipped vehicles due to its low power consumption and its possible integration with 4G/LTE chipsets;

Benefit from the economy of scale as it can leverage synergies between transportation and other verticals which are moving towards 5G (e.g. e-health, smart cities, industry 4.0, smart farming, etc.)

C-V2X will improve safety on roads by tremendously facilitating the flow of information between vehicles, pedestrians, and road infrastructure. This will enable connected vehicles to anticipate and avoid dangerous situations, reducing collisions and potentially saving lives.

More connected mobility with C-V2X can help address the constantly growing need for mobility while achieving lower emissions with a 5-20% estimated emission reduction potential. Connected mobility will increase transport efficiency and driving patterns, thus reducing congestion, fuel consumption and emissions. Moreover, it will allow the creation of new ways around traffic flow management and better, more localised environmental control (e.g., dynamic geofencing). 5GAA and its members are convinced the global deployment of C-V2X technology will have a sustainable impact worldwide. However, connected vehicles must reach a critical mass to impact emissions reduction significantly. Read here to have more information about the environmental benefits of C-V2X.

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C-V2X explained

Connected Mobility

C-V2X explained

Cellular Vehicle-to-Everything, or C-V2X, is a connected mobility platform that allows vehicles to interact with their surroundings, such as other vehicles, cyclists, pedestrians, road infrastructure, or mobile networks.

To enable connectivity within the broader transport ecosystem, C-V2X uses two complementary transmission modes.

First, direct communications (PC5) works independently of cellular networks and allows vehicles to communicate with other road users (cyclists, pedestrians or other vehicles). Second, network communications (Uu) leverages conventional mobile networks to enable vehicles to receive real-time information about road conditions and local traffic.

By connecting individual vehicles and enabling the development of cooperative intelligent transport systems that reduce congestion and pollution, C-V2X can transform how we look at traffic information to enhance travel and increase road safety.

Leading the new era
of mobility

C-V2X continually evolves over multiple releases in 3GPP. Cellular-V2X (C-V2X) is the umbrella term which encapsulates all 3GPP V2X technologies, including both direct (PC5) and mobile network communications (Uu).​

A major milestone was achieved in 2017 by completing LTE-V2X in Release 14, including both direct and mobile network communications delivering basic safety use cases. In 2020, 5G-V2X was completed in Release 16, also combining direct and mobile network communications to enable advanced and automated driving use cases. ​

Who is 3GPP?

3GPP is a worldwide Standardisation Development Organisation (SDO) developing standards for the different generations of mobile networks: GSM (2G), UMTS (3G), LTE (4G) and 5G, targeting a wide range of consumer and industry applications. When applied in a vehicle connectivity context the acronym V2X (vehicle-to-everything) is added.

Read more

C-V2X in detail

C-V2X provides one unified solution for V2V (vehicle-to-vehicle), V2I (vehicle-to-infrastructure), and V2P (vehicle-to pedestrian) operation with V2N (vehicle-to-network) by leveraging existing cellular network infrastructure.​

  • Device-to-device [1] is Vehicle-to-Vehicle (V2V), Vehicle-to-(Roadway) Infrastructure (V2I) and Vehicle-to-Pedestrian (V2P) direct communication without necessarily relying on network involvement for scheduling.​
  • Device-to-cell tower is another communications link that enables network resources and scheduling and utilises existing operator infrastructure. Device-to-cell tower communications constitute at least part of the V2I proposition and are essential to end-to-end solutions.​
  • ​Device-to-network is the V2N solution using traditional cellular links to enable cloud services to be part and parcel of the end-to-end solution.

In the device-to-device mode (V2V, V2I, V2P) operation, C-V2X does not necessarily require any network infrastructure. It can operate without a SIM, without network assistance and uses GNSS as its primary time synchronisation source.​

C-V2X also supports V2N applications using existing cellular networks where other voices and data communications occur. V2N would deliver network assistance and commercial services requiring the involvement of a Mobile Network Operator (MNO).​

​Collectively, the transmission modes of shorter-range direct communications (V2V, V2I, V2P) and longer-range network-based communications (V2N) comprise what we call Cellular-​V2X[2].

[1] Relies on the PC5 interface specified by 3GPP for device-to-device operation.​
[2] See 3GPP TR 22.885 Study on LTE Support for Vehicle to Everything (V2X) Services.​

Work Items

Work Items

Completed Work Items – 2024

Technical Report

Objectives:

  • 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.

 

White Paper

Objective:

  • Provide an update of 5GAA’s vision for the global deployment of smarter, safer and more sustainable mobility and transportation services.

 

Technical Report

Objectives:

  • 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.

 

Technical Report

Objective:

  • 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.

 

Technical Report

Objectives:

  • 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.

 

White Paper

Objective:

  • Explore how to manage misbehaviour in Vehicle-to-Everything (V2X) communication systems, where vehicles and infrastructure directly exchange information.

Technical Report

Objectives:

  • 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.’

Technical Report

Objectives:

  • 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’.

White Paper

Objective:

  • 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.

Technical Report

Objectives:

  • 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.

Position Paper

Objectives:

  • 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.

White Paper

Objectives:

  • 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.

Position Paper

Objective:

  • 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.

Technical Report

Objective:

  • 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.

White Paper

Objective:

  • 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

 
Publications
 

This Work Item aims at:

  • Create a list of devices and update it every 6 months
  • Define KPIs of the Dashboard and the format of the dashboard presentation
  • Verify 5GAA’s market predictions
  • Ensure legal compliance
  • Create the first dashboard for publication

 
Publications
 

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.
 
Publications
 

This Work Item consists of:

  1. Moving toward federated MEC demos/trials (global MEC);
  2. MEC System interoperability and test framework;
  3. 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.
  • Provide input to SDOs.

 
Publications
 

This Work Item consists of:

  • 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

 
Publications
 

This Work Item consists of:

  • Update White Paper on C-V2X Use Cases: Methodology, Examples and Service Level Requirements [3].
  • Update TRs Vol. I [1] and Vol. II [2] as needed.
  • Update WP Vol. I [3] and Vol. II [4] as needed.
  • Create new TR (Vol. III) with new UCs.

This Work Item consists of:

  • Description of applicable measurement configurations
  • Description of test procedures
  • Definition of relevant metrics

 
Publications
 

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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5GAA and GCF Announce New Agreement on C-V2X Certification Programme

5GAA and GCF Announce New Agreement on C-V2X Certification Programme

The newly announced programme will provide trusted foundation for C-V2X applications globally.

The 5G Automotive Association (5GAA) and the Global Certification Forum (GCF) have agreed on a new programme that will support the drive for interoperability, reliability, and safety of emerging cellular vehicle-to-everything (C-V2X) systems.

C-V2X – which allows direct wireless communication between vehicles, and between vehicles and the infrastructures on the roadways – is an essential enabler for a safer and more efficient intelligent transportation system. It therefore requires a certification process to ensure compliance with global standards and to provide reliability to manufacturers and users alike.

The newly established programme will enable manufacturers to certify their C-V2X capable products – including onboard units (OBU) and roadside units (RSU) – for C-V2X PC5 Mode 4 functionality.

Many actors of the C-V2X ecosystem will be able to benefit from the new programme. Tier 1 manufacturers of OBUs and RSUs can ensure their products are interoperable with each other in terms of V2V functionality; vehicle manufacturers can rely on intelligent connectivity within automobiles; and insurance companies will have the opportunity to monitor for safe driving practices. Municipal traffic authorities will also be able to trust in the potential of products to operate over their infrastructure, maintaining traffic flows, and all road users – including cyclists and pedestrians, as well as drivers – can look forward to the safer roads promised by intelligent mobility.

GCF’s certification scheme has been evolving since 1999 in alignment with developments in the wireless communication industry. This result stems from the collaboration 5GAA and GFC have reinforced since 2019, to investigate the principles and framework for a certification programme – designed specifically for C-V2X technologies.

This represents the first part of a multiphase certification programme that will evolve from radio layer certification of PC5 Mode 4 (V2V and V2I) to LTE and 5G-NR based V2X-Uu (V2N) using the 4G and 5G cellular network for communications, taking advantage of the increased functionality and performance that 5G brings.

For more information and to register your interest in the new GCF C-V2X certification programme, click here.

Read the press release here.

5GAA publishes C-ITS Communication System Profiles

5GAA publishes C-ITS Communication System Profiles

In light of on-going discussions on a legal framework for the European C-ITS deployment, a minimum set of specifications and configurations is needed for existing ITS standards ensuring the interoperability of C-ITS service among ITS stations using different communication technologies and systems, e.g. short-range and long-range radio communications.

While C-V2X standards are already finalised for 3GPP Rel. 14 and 5GAA published White Paper on C-V2X Use Cases: Methodology, Examples and Service Level Requirements, there are still many options on how to configure and establish parameters for C-V2X systems. In order to provide a common standard interpretation, corresponding system profiles are needed, which outline the basic system settings and environments

In Europe, Basic System Profiles (BSPs) have been developed by the Car-2-Car Communication Consortium (C2C-CC) and the EU-funded C-ROADS Platform project, assuming ITS-G5 with IEEE 802.11p as radio access technology for V2V and V2I communication. Though many aspects of the existing BSPs could be reused, there are some modifications needed for C-V2X. In addition, there would be extensions required in order to accommodate alternative communication links like V2P, V2N, and V2C.

5G Automotive Association makes publicly available the following  C-ITS Communication System Profiles:

Turin Demonstrations Wrap-up Video – 14 November 2019

Turin Demonstrations Wrap-up Video – 14 November 2019

On 14 November 2019, the 5G Automotive Association (5GAA) showcased ready-to-deploy use-cases in the streets of Turin, Italy during a live demo event. A sneak preview of what the future has in store took place on the renowned Lingotto rooftop test track.

Prominent members and partners of the 5GAA including Fiat Chrysler Automobiles, Audi, Continental, Ericsson, Harman Samsung, Marelli, Pirelli, Qualcomm, TIM and Vodafone demonstrated the current state of C-V2X and the road to future, Vehicle-to-Vehicle (V2V), Vehicle-to-Infrastructure (V2I), and Vehicle-to-Network (V2N) applications based on 4G LTE and 5G.

Turin Demonstrations Wrap-up Video – 14 November 2019

On 14 November 2019, the 5G Automotive Association (5GAA) showcased ready-to-deploy use-cases in the streets of Turin, Italy during a live demo event. A sneak preview of what the future has in store took place on the renowned Lingotto rooftop test track.

Prominent members and partners of the 5GAA including Fiat Chrysler Automobiles, Audi, Continental, Ericsson, Harman Samsung, Marelli, Pirelli, Qualcomm, TIM and Vodafone demonstrated the current state of C-V2X and the road to future, Vehicle-to-Vehicle (V2V), Vehicle-to-Infrastructure (V2I), and Vehicle-to-Network (V2N) applications based on 4G LTE and 5G.

Berlin Demonstrations Wrap-up Video – 23 May 2019

Berlin Demonstrations Wrap-up Video – 23 May 2019

On 23 May 2019, the 5G Automotive Association (5GAA) took a deep dive into smarter and safer mobility organising live C-V2X demonstrations in Berlin, Germany.

Prominent 5GAA participating members including BMW Group, Daimler, Deutsche Telekom, Fraunhofer Institutes FOKUS and ESK, Ford, Huawei, Jaguar Land Rover, Nokia, Qualcomm and Vodafone, demonstrated C-V2X Vehicle-to-Vehicle (V2V), Vehicle-to-Infrastructure (V2I) and Vehicle-to-Network (V2N) applications.

Click here to read the full press release.