Honda R&D Americas, Inc.

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Honda R&D Americas, Inc.

Topics Honda s view on ITS and V2X Activity Honda-lead V2I Message Set Development Status Challenges

Topics Honda s view on ITS and V2X Activity Honda-lead V2I Message Set Standard Development Status Challenges

Benefit of Connected Vehicle Less Road Congestion Save Time Fewer Traffic Accidents Improve Safety Eco Drive Environment Reduction of CO 2 Increased Efficiency Fewer Emissions Save Energy Minimize Environmental Impact ITS Smooth Traffic Flow Hazard Avoidance Mobility Safety Reduce Traffic Jams Accident Reduction

Roadmap to a Collision-Free Car Fatality Reduction Zero Fatalities Collision-Free Car Situation Awareness V2V / V2I communication Preventive Safety Forward Collision Road Departure Warning Brake/Steering control Pedestrian Detection Driver Support systems Driver monitoring Continuous improved body structure and S.R.S. Collision Avoidance Passive Safety Time V2X communication technology will be needed to realize a collision-free car

Timeline and Active Safety Application Areas Cellular Visible Hazard (Radar & Camera Sensors) Traffic / Accident / Telematics Large Area Information Over a minute prior Awareness Traffic Improvement Advanced Information 3 seconds prior Avoidance Stand-alone Sensors Collision

Timeline and Active Safety Application Areas V2V V2I Visible Hazard (Radar & Camera Sensors) Unseen Hazards (V2I & V2V) Over a minute prior Awareness Traffic Improvement Advanced Information 10 seconds prior 3 seconds prior Warning Avoidance Increased Situational Stand-alone Awareness Sensors Collision

Honda's Connected Vehicle Activities - Worldwide Car 2 Car Consortium ASV Program V2V Activities

DSRC Cooperative Driving Support System Demonstration scene on ITS World congress CENTRAL ITS STATION Traffic information Traffic information Signal information Message Message Reduce V2Motorcycle intersection collision Information display Contribute to Zero Collision

Protecting Vulnerable Road Users-V2Motorcycle Demo in Detroit 2013/08 Goals Safety between vehicles and motorcycles (V2M) Reduce vehicle-motorcycle accidents through DSRC Scenario Motorcycle passes a turning van while a vehicle is making a left turn Unique Value Warning the driver of the presence of a motorcycle or potential collision when the motorcycle cannot be seen

Protecting Vulnerable Road Users V2Pedestrian Goals Cooperative safety between vehicles and pedestrians (V2P) Reduce vehicle-pedestrian accidents through DSRC 3 Scenarios 1 ~1.5 m/s Distracted Pedestrian 3 ~1.5 m/s Vehicle Backing Up 10 m ~1.5 m/s ~15 m/s 7.5 m A 7.5 m 2 ~1.5 m/s 7.5 m Rental truck 100 m 75 m Obstructed View ~15 m/s The smartphone can communicate distracted mode of pedestrian to driver 1.On the Phone 2.Listening to Music 3. Texting DSRC Chip in the Phone Unique Value Ability to detect pedestrian even without direct line-of-sight, in the dark, or during low-visibility situations

Green Wave Driving Support System Driving support using traffic signal data realizes smooth passing at intersections Optical beacon Traffic signal Information HMI 50km/h 推奨 ECU Receiver

Green Wave Driving Support System Driving support realizes smooth passing at intersections Signal passing support No support Velocity Support provided 50km/h 推奨 Display recommended speed for Passing green light Decelerate Acceleration Intersection Position

Green Wave Driving Support System Driving support realizes smooth stopping at light Stop signal support With support Velocity With support アクセル OFF 推奨 Display accelerator off timing When stop at red light 0 Driving distance

Green Wave Driving Support System Driving support realizes smooth start and acceleration Delayed start prevention support Velocity With support 前方を確認してください Display the remaining time When stop at red light 0 time Without support

Green Wave Driving Support System Status of Rear-end Collisions Data source: ITARDA fiscal 2011 traffic collision data Road Shape Roads w/o intersections With signal 23% Without signals 12% Intersections: 23% (With signal) Vehicle speed (km/h) 60 40 20 0 Trial result Without support Recommended speed Test area: Kasaibashi-dori Number of test subjects: 44 With support 50 100 150 200 250 Position (m) Cause Miss recognition Reduce Rear-end Collision that Occur at the intersection Miss judgment: 25% Operation error : 12% Fuel efficiency (km/l) 13 12 11 10 0 Without support 6.4% improved 10.9 Proceeding east 11.6 11.5 With support 7.2% improved 12.3 Proceeding west Fuel efficiency improvement with smooth driving

Topics Honda s view on ITS and V2X Activity Honda-lead V2I Message Set Standard Development Status Challenges

US-EU V2V/V2I Standards Compare/Contrast Similar architectures Security protocol and physical layer standards are identical Message set data elements are similar However application layer, channel congestion control and performance requirements differs-it is OK to remain different IEEE 1609.2 Security functions SAE J2735 J2945 Message set & data performance requirements Application Layer IEEE 1609.3 1609.4 Network Layer IEEE 802.11p PHY Layer

SAE DSRC J2735 & J2945 Development Strong collaboration among US/EU/JPN on V2V and V2I msg All three regions agreed on using the same Signal Phase & Timing (SPaT) and Map messages SAE J2735 Data Dictionary Data Elements: Vehicle speed Signal Phase Intersection ID Messages: Basic Safety Message (BSM) Signal Phase and Timing (SPaT) Map SAE J2945 Application Specific Performance Requirements J2945.0 common section Provider Service Identifier (PSID) Service Specific Permission (SSP) Message Priority J2945.1 V2V safety Concept of Operations User Needs Functional Requirements Channel Use V2V Communications Scalability Security / Privacy GPS Receiver Configuration Data Element Level Requirements Test procedures J2945.2 (Traffic signal related) Concept of Operations - Signal priority - Signal violation warning User Needs Functional Requirements Message Transmission Interval Channel Use Security

V2I Message Standards Update 1. SAE is closely working with US/EU/JPN experts on SPaT and Map revision for each region s DSRC deployment needs 1 Allow regional variance while maintaining largely identical message contents 2. Examples of some of the EU & Japan specific needs: 1 Adding Queuing info to allow cars/drivers make smarter decisions such as whether to stay in the same turning lane or try to make the turn at the next intersection 2 Adding fuel-efficiency class in the message to advise vehicles to enter/not enter certain area without proper fuel-efficiency class privilege 3. Encourage the regional test bed group to join the message revision process and start using the new format as soon as it is published early 2014 SPaT: tells what phase for what maneuvers will be coming up for how long Map: allow veh. to position itself to the correct lane & signal phase group J2735 rev SPaT & Map limited ballot from 2013 to support EU deployment J2945 rev J2735 J2945 full ballot rev. ready J2735 J2945 Publication?

Topics Honda s view on ITS and V2X Activity Honda-lead V2I Message Set Standards Development Status Challenges

Challenges for DSRC Deployment 1. Security Framework & Privacy Protection Fundamental trust among data exchange at system level Customers need assurance on privacy protection However the design and operation are complex and need infra. support for tasks such as - Certificate distribution/maintenance - Misbehavior detection and bad-player reporting/list distribution 2. Cooperative System Data Reliability Common understanding of the quality of the data to ensure application performance 3. Standards Development & International SDO Coordination Virtually all OEMs have global presence Many of the deployment use cases on the roadmaps are similar Common/coordinated standards enable simpler design and validation process for global development use 4. V2V Penetration & Early Benefit V2I is a very important piece of the puzzle Industry-Government collaboration is key to success!