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VS02: V2V Basic Safety

This service package exchanges basic safety messages with surrounding Connected Vehicles to support and augment the safety warning and control automation features identified in VS01. These exchanges support Connected Vehicle safety applications defined in SAE J2945/1: Emergency Electronic Brake Lights, Forward Crash Warning, Blind Spot Warning/Lane Change Warning, Intersection Movement Assist, Left Turn Assist, and Control Loss Warning. It also supports other safety applications that benefit from the exchange of basic safety messages that provide additional information about surrounding vehicles beyond what can be determined by vehicle-based sensors.

Relevant Regions: Australia, Canada, European Union, and United States

Enterprise

Development Stage Roles and Relationships

Installation Stage Roles and Relationships

Operations and Maintenance Stage Roles and Relationships
(hide)

Source Destination Role/Relationship
Basic Vehicle Maintainer Basic Vehicle Maintains
Basic Vehicle Manager Basic Vehicle Manages
Basic Vehicle Manager Driver System Usage Agreement
Basic Vehicle Owner Basic Vehicle Maintainer System Maintenance Agreement
Basic Vehicle Owner Basic Vehicle Manager Operations Agreement
Basic Vehicle Owner Driver Application Usage Agreement
Basic Vehicle Owner Driver Vehicle Operating Agreement
Basic Vehicle Owner Vehicle Maintainer Maintenance Data Exchange Agreement
Basic Vehicle Owner Vehicle Owner Expectation of Data Provision
Basic Vehicle Owner Vehicle User Service Usage Agreement
Basic Vehicle Supplier Basic Vehicle Owner Warranty
Driver Basic Vehicle Operates
Driver Roadway Owner Expectation of Roadway Condition Management
Driver Vehicle Operates
Other Vehicles Maintainer Other Vehicles Maintains
Other Vehicles Manager Other Vehicles Manages
Other Vehicles Owner Driver Application Usage Agreement
Other Vehicles Owner Driver Vehicle Operating Agreement
Other Vehicles Owner Other Vehicles Maintainer System Maintenance Agreement
Other Vehicles Owner Other Vehicles Manager Operations Agreement
Other Vehicles Owner Vehicle Maintainer Maintenance Data Exchange Agreement
Other Vehicles Owner Vehicle Owner Expectation of Data Provision
Other Vehicles Owner Vehicle User Service Usage Agreement
Other Vehicles Supplier Other Vehicles Owner Warranty
Roadway Maintainer Roadway Environment Maintains
Roadway Manager Roadway Environment Manages
Roadway Owner Roadway Maintainer System Maintenance Agreement
Roadway Owner Roadway Manager Operations Agreement
Vehicle Characteristics Maintainer Vehicle Characteristics Maintains
Vehicle Characteristics Manager Vehicle Characteristics Manages
Vehicle Characteristics Owner Vehicle Characteristics Maintainer System Maintenance Agreement
Vehicle Characteristics Owner Vehicle Characteristics Manager Operations Agreement
Vehicle Characteristics Supplier Vehicle Characteristics Owner Warranty
Vehicle Maintainer Vehicle Maintains
Vehicle Manager Driver System Usage Agreement
Vehicle Manager Vehicle Manages
Vehicle Owner Basic Vehicle Maintainer Maintenance Data Exchange Agreement
Vehicle Owner Basic Vehicle Owner Expectation of Data Provision
Vehicle Owner Basic Vehicle User Service Usage Agreement
Vehicle Owner Driver Application Usage Agreement
Vehicle Owner Driver Vehicle Operating Agreement
Vehicle Owner Other Vehicles Maintainer Maintenance Data Exchange Agreement
Vehicle Owner Other Vehicles Owner Expectation of Data Provision
Vehicle Owner Other Vehicles User Service Usage Agreement
Vehicle Owner Vehicle Maintainer System Maintenance Agreement
Vehicle Owner Vehicle Manager Operations Agreement
Vehicle Supplier Vehicle Owner Warranty

Physical

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Includes Physical Objects:

Physical Object Class Description
Basic Vehicle Vehicle 'Basic Vehicle' represents a complete operating vehicle. It includes the vehicle platform that interfaces with and hosts ITS electronics and all of the driver convenience and entertainment systems, and other non-ITS electronics on-board the vehicle. Interfaces represent both internal on-board interfaces between ITS equipment and other vehicle systems and other passive and active external interfaces or views of the vehicle that support vehicle/traffic monitoring and management. External interfaces may also represent equipment that is carried into the vehicle (e.g., a smartphone that is brought into the vehicle). Internal interfaces are often implemented through a vehicle databus, which is also included in this object. Note that 'Vehicle' represents the general functions and interfaces that are associated with personal automobiles as well as commercial vehicles, emergency vehicles, transit vehicles, and other specialized vehicles.
Driver Vehicle The 'Driver' represents the person that operates a vehicle on the roadway. Included are operators of private, transit, commercial, and emergency vehicles where the interactions are not particular to the type of vehicle (e.g., interactions supporting vehicle safety applications). The Driver originates driver requests and receives driver information that reflects the interactions which might be useful to all drivers, regardless of vehicle classification. Information and interactions which are unique to drivers of a specific vehicle type (e.g., fleet interactions with transit, commercial, or emergency vehicle drivers) are covered by separate objects.
Other Vehicles Vehicle 'Other Vehicle OBEs' represents other connected vehicles that are communicating with the host vehicle. This includes all connected motorized vehicles including passenger cars, trucks, and motorcycles and specialty vehicles (e.g., maintenance vehicles, transit vehicles) that also include the basic 'Vehicle OBE' functionality that supports V2V communications. This object provides a source and destination for information transfers between connected vehicles. The host vehicle on-board equipment, represented by the Vehicle OBE physical object, sends information to, and receives information from the Other Vehicle OBEs to model all connected vehicle V2V communications in ARC-IT.
Potential Obstacles Field 'Potential Obstacles' represents any object that possesses the potential of being sensed and struck and thus also possesses physical attributes. Potential Obstacles include roadside obstructions, debris, animals, infrastructure elements (barrels, cones, barriers, etc.) or any other element that is in a potential path of the vehicle. Note that roadside objects and pieces of equipment that can become obstacles in a vehicle's path can include materials, coatings, or labels (e.g., barcodes) that will improve the performance of the vehicle-based sensors that must detect and avoid these obstacles. See also 'Vulnerable Road Users' that more specifically represents the physical properties of shared users of the roadway that must also be detected.
Roadway Environment Field 'Roadway Environment' represents the physical condition and geometry of the road surface, markings, signs, and other objects on or near the road surface. It also represents the environmental conditions immediately surrounding the roadway. The roadway environment must be sensed and interpreted to support automated vehicle services. Surrounding conditions may include fog, ice, snow, rain, wind, etc. which will influence the way in which a vehicle can be safely operated on the roadway. The roadway environment must be monitored to enable corrective action and information dissemination regarding roadway conditions which may adversely affect travel. Infrastructure owner/operators can improve the roadway environment to improve the performance and accuracy of vehicle-based sensors that must sense and interpret this environment. Improvements could include changes in the shape, size, design, and materials used in signs, pavement markings, and other road features.
Vehicle Vehicle This 'Vehicle' physical object is used to model core capabilities that are common to more than one type of Vehicle. It provides the vehicle-based general sensory, processing, storage, and communications functions that support efficient, safe, and convenient travel. Many of these capabilities (e.g., see the Vehicle Safety service packages) apply to all vehicle types including personal vehicles, commercial vehicles, emergency vehicles, transit vehicles, and maintenance vehicles. From this perspective, the Vehicle includes the common interfaces and functions that apply to all motorized vehicles. The radio(s) supporting V2V and V2I communications are a key component of the Vehicle. Both one-way and two-way communications options support a spectrum of information services from basic broadcast to advanced personalized information services. Advanced sensors, processors, enhanced driver interfaces, and actuators complement the driver information services so that, in addition to making informed mode and route selections, the driver travels these routes in a safer and more consistent manner. This physical object supports all six levels of driving automation as defined in SAE J3016. Initial collision avoidance functions provide 'vigilant co-pilot' driver warning capabilities. More advanced functions assume limited control of the vehicle to maintain lane position and safe headways. In the most advanced implementations, this Physical Object supports full automation of all aspects of the driving task, aided by communications with other vehicles in the vicinity and in coordination with supporting infrastructure subsystems.
Vehicle Characteristics Vehicle 'Vehicle Characteristics' represents the external view of individual vehicles of any class from cars and light trucks up to large commercial vehicles and down to micromobility vehicles (MMVs). It includes vehicle physical characteristics such as height, width, length, weight, and other properties (e.g., magnetic properties, number of axles) of individual vehicles that can be sensed and measured or classified. This physical object represents the physical properties of vehicles that can be sensed by vehicle-based or infrastructure-based sensors to support vehicle automation and traffic sensor systems. The analog properties provided by this terminator represent the sensor inputs that are used to detect and assess vehicle(s) within the sensor's range to support safe AV operation and/or responsive and safe traffic management.
Vulnerable Road Users Personal 'Vulnerable Road Users' represents any roadway user not in a motorized vehicle capable of operating at the posted speed for the roadway in question, and also any roadway user in a vehicle not designed to encase (and thus protect) its occupants. This includes pedestrians, cyclists, wheelchair users, two-wheeled scooter micromobility users, as well as powered scooters and motorcycles. Note that this terminator represents the physical properties of vulnerable road users and their conveyance that may be sensed to support safe vehicle automation and traffic management in mixed mode applications where a variety of road users share the right-of-way. See also 'Pedestrian' and 'MMV User' Physical Objects that represent the human interface to these vulnerable road users.

Includes Functional Objects:

Functional Object Description Physical Object
Vehicle Basic Safety Communication 'Vehicle Basic Safety Communication' exchanges current vehicle location and motion information with other vehicles in the vicinity, uses that information to calculate vehicle paths, and warns the driver when the potential for an impending collision is detected. If available, map data is used to filter and interpret the relative location and motion of vehicles in the vicinity. Information from on-board sensors (e.g., radars and image processing) are also used, if available, in combination with the V2V communications to detect non-equipped vehicles and corroborate connected vehicle data. Vehicle location and motion broadcasts are also received by the infrastructure and used by the infrastructure to support a wide range of roadside safety and mobility applications. This object represents a broad range of implementations ranging from basic Vehicle Awareness Devices that only broadcast vehicle location and motion and provide no driver warnings to advanced integrated safety systems that may, in addition to warning the driver, provide collision warning information to support automated control functions that can support control intervention. Vehicle
Vehicle Control Automation 'Vehicle Control Automation' provides lateral and/or longitudinal control of a vehicle to allow 'hands off' and/or 'feet off' driving, automating the steering, accelerator, and brake control functions. It builds on the sensors included in 'Vehicle Safety Monitoring' and 'Vehicle Control Warning' and uses the information about the area surrounding the vehicle to safely control the vehicle. It covers the range of incremental control capabilities from driver assistance systems that take over steering or acceleration/deceleration in limited scenarios with direct monitoring by the driver to full automation where all aspects of driving are automated under all roadway and environmental conditions. Vehicle
Vehicle Control Warning 'Vehicle Control Warning' monitors areas around the vehicle and provides warnings to a driver so the driver can take action to recover and maintain safe control of the vehicle. It includes lateral warning systems that warn of lane departures and obstacles or vehicles to the sides of the vehicle and longitudinal warning systems that monitor areas in the vehicle path and provide warnings when headways are insufficient or obstacles are detected in front of or behind the vehicle. It includes on-board sensors, including radars and imaging systems, and the driver information system that provides the visual, audible, and/or haptic warnings to the driver. Vehicle

Includes Information Flows:

Information Flow Description
driver input Driver input to the vehicle on-board equipment including configuration data, settings and preferences, interactive requests, and control commands.
driver input information Driver input received from the driver-vehicle interface equipment via the vehicle bus. It includes configuration data, settings and preferences, interactive requests, and control commands for the connected vehicle on-board equipment.
driver update information Information provided to the driver-vehicle interface to inform the driver about current conditions, potential hazards, and the current status of vehicle on-board equipment. The flow includes the information to be presented to the driver and associated metadata that supports processing, prioritization, and presentation by the DVI as visual displays, audible information and warnings, and/or haptic feedback.
driver updates Information provided to the driver including visual displays, audible information and warnings, and haptic feedback. The updates inform the driver about current conditions, potential hazards, and the current status of vehicle on-board equipment.
host vehicle status Information provided to the ITS on-board equipment from other systems on the vehicle platform. This includes the current status of the powertrain, steering, and braking systems, and status of other safety and convenience systems. In implementations where GPS is not integrated into the Vehicle On-Board Equipment, the host vehicle is also the source for data describing the vehicle's location in three dimensions (latitude, longitude, elevation) and accurate time that can be used for time synchronization across the ITS environment.
physical presence Detection of an obstacle. Obstacle could include animals, incident management and construction elements such as cones, barrels and barriers, rocks in roadway, etc.
roadway characteristics Detectable or measurable road characteristics such as friction coefficient and general surface conditions, road geometry and markings, etc. These characteristics are monitored or measured by ITS sensors and used to support advanced vehicle safety and control and road maintenance capabilities.
vehicle characteristics The physical or visible characteristics of individual vehicles that can be used to detect, classify, and monitor vehicles and imaged to uniquely identify vehicles.
vehicle control Control commands issued to vehicle actuators that control steering, throttle, and braking and other related commands that support safe transition between manual and automated vehicle control. This flow can also deploy restraints and other safety systems when a collision is unavoidable.
vehicle control event Notification that the vehicle has performed an emergency maneuver or action that could impact the safety of surrounding vehicles. This includes hard braking and activation of traction/stability control systems or other actions that warrant immediate notification of surrounding vehicles. The information flow conveys the current vehicle location, path, and current control actions. This may also include the list of maneuvers includes lane changes/departures and overtaking/passing maneuvers.
vehicle location and motion Data describing the vehicle's location in three dimensions, heading, speed, acceleration, braking status, and size.
vulnerable road user presence Detection of pedestrians, cyclists, and other vulnerable road users. This detection is based on physical characteristics of the user and their conveyance, which may be enhanced by design and materials that facilitate sensor-based detection and tracking of vulnerable road users.

Goals and Objectives

Associated Planning Factors and Goals

Planning Factor Goal
B. Increase the safety of the transportation system for motorized and nonmotorized users; Reduce fatalities and injuries

Associated Objective Categories

Objective Category
Safety: Vehicle Crashes and Fatalities

Associated Objectives and Performance Measures

Objective Performance Measure
Reduce crashes due to driver errors and limitations Number of crashes and fatalities related to driver inattention and distraction
Reduce crashes due to driver errors and limitations Number of crashes and fatalities related to driving while intoxicated
Reduce crashes due to unexpected congestion Number of crashes and fatalities related to unexpected congestion
Reduce crashes due to unsafe drivers, vehicles and cargo on the transportation system Number of crashes and fatalities due to commercial vehicle safety violations
Reduce lane departure crashes Number of crashes and fatalities related to inappropriate lane departure, crossing or merging
Reduce secondary crashes Number of secondary crashes
Reduce the number of motorcyclist fatalities by X percent by year Y. Number of motorcyclist fatalities
Reduce the number of speeding-related fatalities by X percent by year Y. Number of speeding-related fatalities
Reduce the rate fatalities in the region by X percent by year Y. Rate of fatalities (rate per vehicle miles travelled (VMT))
Reduce the rate of severe injuries in the region by X percent by year Y. Rate of serious injuries (rate per VMT)
Reduce the total number of crashes in the region by X percent by year Y. Total crashes per X VMT.
Reduce the total number of fatalities and severe injuries in the region by X percent by year Y. Total fatalities per X VMT.
Reduce the total number of fatalities and severe injuries in the region by X percent by year Y. Total severe injuries per X VMT.
Reduce the total number of fatalities in the region by X percent by year Y. Number of fatalities
Reduce the total number of severe injuries in the region by X percent by year Y. Number of serious injuries


 
Since the mapping between objectives and service packages is not always straight-forward and often situation-dependent, these mappings should only be used as a starting point. Users should do their own analysis to identify the best service packages for their region.

Needs and Requirements

Need Functional Object Requirement
01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle. Vehicle Basic Safety Communication 02 The vehicle shall provide its location with lane-level accuracy to on-board applications.
03 The vehicle shall provide its location with road-level accuracy to on-board applications.
05 The vehicle shall calculate vehicle paths in order to determine if an impending collision is detected.
06 The vehicle shall exchange location and motion information with roadside equipment and nearby vehicles.
09 The vehicle shall determine when its host Vehicle is braking in an emergency fashion and broadcast an Emergency Electronic Brake Light (EEBL) notification.
12 The vehicle shall analyze its own applications' performance and enter fail-safe mode (a mode such that the application cannot provide information or perform actions that affect its host) when critical components fail.
13 The vehicle shall notify the driver when onboard components or safety applications are offline.
Vehicle Control Automation 03 The vehicle shall evaluate the likelihood of a collision between two vehicles or a vehicle and a stationary object, based on the proximity of other objects to the vehicle and the current speed and direction of the vehicle.
05 The Vehicle shall provide its location with lane-level accuracy to on-board control automation applications.
Vehicle Control Warning 11 The vehicle shall determine the trajectory of the host vehicle.
02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles. Vehicle Basic Safety Communication 08 The vehicle shall warn the driver of an Emergency Electronic Brake Light (EEBL) Event.
Vehicle Control Automation 07 The vehicle shall provide position control adjustments and warnings to the driver when an object gets close enough to the vehicle to become a hazard if no action is taken by the driver.
10 The vehicle shall present vehicle control information to the driver in audible or visual forms without impairing the driver's ability to control the vehicle in a safe manner.
Vehicle Control Warning 03 The vehicle shall provide position warnings to the driver when an object gets close enough to the vehicle to become a hazard if no action is taken by the driver.
04 The vehicle shall present vehicle control warnings information to the driver in audible or visual forms without impairing the driver's ability to control the vehicle in a safe manner.
12 The vehicle shall determine if a crash between the host vehicle and a remote vehicle is imminent.
13 The vehicle shall determine if approaching vehicles are of type motorcycle.
14 The vehicle shall provide warnings to the driver that a motorcycle is approaching the driver's vehicle.
15 The vehicle shall acquire the current location and motion of remote vehicles to determine any slow moving vehicles which the host vehicle is approaching.
03 The Driver needs the connected vehicle to be able to perform vehicle control actions to avoid safety compromising situations with nearby remote vehicles. Vehicle Control Automation 04 The vehicle shall collect location and motion data from the vehicle platform.
08 The vehicle shall provide an interface through which a vehicle driver can initiate, monitor and terminate automatic control of the vehicle.
09 The vehicle shall send appropriate control actions to the vehicle's steering actuators.
12 The vehicle shall perform pre-crash actions, including seatbelt tightening, brake assist, airbag pre-arming, bumper raising/extension.
Vehicle Control Warning 09 The vehicle shall collect location and motion data from the vehicle platform.

Related Sources

Document Name Version Publication Date
ITS User Services Document 1/1/2005
CO-UMP Blind Spot Detection 5/31/2021
CO-UMP Emergency Brake Light 5/31/2021
CO-UMP Motorcycle Approaching Indication 5/31/2021
CO-UMP Slow or Stationary Vehicle Warning 5/31/2021
ETSI TR 102 638 ITS Vehicular Communications; Basic Set of Applications; Definitions 6/1/2009
ETSI TS 102 637-1 ITS Vehicular Communications; Basic Set of Applications; Part 1: Functional Requirements 9/1/2010
SAE J3067- Candidate Improvements to Dedicated Short Range Communications (DSRC) Message Set Dictionary (SAE J2735)Using Systems Engineering Methods 8/15/2014
Vehicle Safety Communications Applications (VSC-A) Final Report Final 9/1/2011


Security

In order to participate in this service package, each physical object should meet or exceed the following security levels.

Physical Object Security
Physical Object Confidentiality Integrity Availability Security Class
Basic Vehicle  
Other Vehicles Low High Moderate Class 3
Potential Obstacles  
Roadway Environment Not Applicable Low Low Class 1
Vehicle Low High Moderate Class 3
Vehicle Characteristics  
Vulnerable Road Users  



In order to participate in this service package, each information flow triple should meet or exceed the following security levels.

Information Flow Security
Source Destination Information Flow Confidentiality Integrity Availability
Basis Basis Basis
Basic Vehicle Vehicle driver input information Moderate High High
Internal vehicle flow that if reverse engineered could enable third party vehicle control. Largely a competitive question, could be set LOW if manufacturer and operator are not concerned with this type of compromise. Includes vehicle control commands, which must be timely and accurate to support safe vehicle operation. Includes vehicle control commands, which must be timely and accurate to support safe vehicle operation.
Basic Vehicle Vehicle host vehicle status Low Moderate High
Unlikely that this includes any information that could be used against the originator. This can be MODERATE or HIGH, depending on the application: This is used later on to determine whether a vehicle is likely going to violate a red light or infringe a work zone. This needs to be correct in order for the application to work correctly. Since this monitors the health and safety of the vehicle and that information is eventually reported to the driver, it should be available at all times as it directly affects vehicle and operator safety.
Driver Vehicle driver input Moderate High High
Data included in this flow may include origin and destination information, which should be protected from other's viewing as it may compromise the driver's privacy. Commands from from the driver to the vehicle must be correct or the vehicle may behave in an unpredictable and possibly unsafe manner Commands must always be able to be given or the driver has no control.
Other Vehicles Vehicle vehicle control event Low Moderate Moderate
This data is intentionally transmitted to everyone via a broadcast. It can also be determined via other visual indicators. This message is an indication of a potential hazard and should not be easy to forge. False messages here may lead to confusion that causes a traffic accident. From NYC: Integrity would need to be high if there were no mitigations against bad data in incoming BSMs. In fact, there are two mitigations: plausibility checking, and misbehavior reporting plus revocation. Taking these into account we believe, with [18], that the security requirements are met by requiring an integrity level of MODERATE on these information flows. RES: Sided with NYC due to mitigation documentation. This message is an indication of a potential hazard. If it isn't received it increases the risk to other road users. If a vehicle is infringing on an intersection, it must report this. From NYC: Even moderate availability of BSMs will enable a large majority of collisions between equipped vehicles to be avoided.
Other Vehicles Vehicle vehicle location and motion Not Applicable High Moderate
This data is intentionally transmitted to everyone via a broadcast. Much of its information content can also be determined via other visual indicators BSM info needs to be accurate and should not be tampered with BSM must be broadcast regularly to make data available for other vehicle OBEs, but availability cannot be guaranteed over a wireless medium
Roadway Environment Vehicle roadway characteristics Not Applicable Low Low
Sensor-based information flows by definition have no confidentiality concerns. While typically security concerns related to sensing ignored, if considered this would be LOW, as the obfuscation or failure of any given environmental sensor is likely to be overcome by the mass of data necessary to draw environmental concluisions. While typically security concerns related to sensing ignored, if considered this would be LOW, as the obfuscation or failure of any given environmental sensor is likely to be overcome by the mass of data necessary to draw environmental concluisions.
Vehicle Basic Vehicle driver update information Low Moderate Moderate
This information is all presented to the vehicle operator. Encrypting this information may make it harder to reverse engineer vehicle systems, and may defeat criminal tracking tools when the vehicle has already been compromised. Unless those scenarios are of concern to the operator or manufacturer, this can safely be set LOW. Any information presented to the operator of a vehicle should be both accurate and timely. By definition this includes safety information, but given that the driver has other means of learning about most threats, it seems difficult to justify HIGH. If HIGH is warranted, it should apply to both availability and integrity. Any information presented to the operator of a vehicle should be both accurate and timely. By definition this includes safety information, but given that the driver has other means of learning about most threats, it seems difficult to justify HIGH. If HIGH is warranted, it should apply to both availability and integrity.
Vehicle Basic Vehicle vehicle control Moderate High High
Internal vehicle flow that if reverse engineered could enable third party vehicle control. Largely a competitive question, could be set LOW if manufacturer and operator are not concerned with this type of compromise. Includes vehicle control commands, which must be timely and accurate to support safe vehicle operation. Includes vehicle control commands, which must be timely and accurate to support safe vehicle operation.
Vehicle Driver driver updates Not Applicable Moderate Moderate
This data is informing the driver about the safety of a nearby area. It should not contain anything sensitive, and does not matter if another person can observe it. This is the information that is presented to the driver. If they receive incorrect information, they may act in an unsafe manner. However, there are other indicators that would alert them to any hazards, such as an oncoming vehicle or crossing safety lights. If this information is not made available to the driver, then the system has not operated correctly.
Vehicle Other Vehicles vehicle control event Low Moderate Moderate
This data is intentionally transmitted to everyone via a broadcast. It can also be determined via other visual indicators. BSM info needs to be accurate and should not be tampered with, suggesting HIGH. From NYC: Integrity would need to be high if there were no mitigations against bad data in incoming BSMs. In fact, there are two mitigations: plausibility checking, and misbehavior reporting plus revocation. Taking these into account we believe, with [18], that the security requirements are met by requiring an integrity level of MODERATE on these information flows. RES: Sided with NYC due to mitigation documentation. BSM must be broadcast regularly to make data available for other vehicle OBEs, but cannot guarantee wireless communication
Vehicle Other Vehicles vehicle location and motion Not Applicable High Moderate
This data is intentionally transmitted to everyone via a broadcast. Much of its information content can also be determined via other visual indicators BSM info needs to be accurate and should not be tampered with BSM must be broadcast regularly to make data available for other vehicle OBEs, but availability cannot be guaranteed over a wireless medium

Standards

Currently, there are no standards associated with the physical objects in this service package. For standards related to interfaces, see the specific information flow triple pages.





System Requirements

System Requirement Need
001 The system shall provide its location with lane-level accuracy to on-board applications. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
002 The system shall provide its location with road-level accuracy to on-board applications. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
003 The system shall calculate vehicle paths in order to determine if an impending collision is detected. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
004 The system shall exchange location and motion information with roadside equipment and nearby vehicles. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
005 The system shall warn the driver of an Emergency Electronic Brake Light (EEBL) Event. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
006 The system shall determine when its host Vehicle is braking in an emergency fashion and broadcast an Emergency Electronic Brake Light (EEBL) notification. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
007 The system shall analyze its own applications' performance and enter fail-safe mode (a mode such that the application cannot provide information or perform actions that affect its host) when critical components fail. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
008 The system shall notify the driver when onboard components or safety applications are offline. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
009 The system shall evaluate the likelihood of a collision between two vehicles or a vehicle and a stationary object, based on the proximity of other objects to the vehicle and the current speed and direction of the vehicle. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
010 The system shall provide its location with lane-level accuracy to on-board control automation applications. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
011 The system shall provide position control adjustments and warnings to the driver when an object gets close enough to the vehicle to become a hazard if no action is taken by the driver. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
012 The system shall provide an interface through which a vehicle driver can initiate, monitor and terminate automatic control of the vehicle. 03 The Driver needs the connected vehicle to be able to perform vehicle control actions to avoid safety compromising situations with nearby remote vehicles.
013 The system shall send appropriate control actions to the vehicle's steering actuators. 03 The Driver needs the connected vehicle to be able to perform vehicle control actions to avoid safety compromising situations with nearby remote vehicles.
014 The system shall present vehicle control information to the driver in audible or visual forms without impairing the driver's ability to control the vehicle in a safe manner. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
015 The system shall perform pre-crash actions, including seatbelt tightening, brake assist, airbag pre-arming, bumper raising/extension. 03 The Driver needs the connected vehicle to be able to perform vehicle control actions to avoid safety compromising situations with nearby remote vehicles.
016 The system shall provide position warnings to the driver when an object gets close enough to the vehicle to become a hazard if no action is taken by the driver. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
017 The system shall present vehicle control warnings information to the driver in audible or visual forms without impairing the driver's ability to control the vehicle in a safe manner. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
018 The system shall determine the trajectory of the host vehicle. 01 The Connected Vehicle needs to be able to send data to and receive data from other connected vehicles in order to provide safety warnings to the driver or control actions to the vehicle.
019 The system shall determine if a crash between the host vehicle and a remote vehicle is imminent. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
020 The system shall determine if approaching vehicles are of type motorcycle. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
021 The system shall provide warnings to the driver that a motorcycle is approaching the driver's vehicle. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.
022 The system shall acquire the current location and motion of remote vehicles to determine any slow moving vehicles which the host vehicle is approaching. 02 The Driver needs to be receive warnings from the vehicle in order to avoid a safety compromising situations with nearby remote vehicles.