Status report of Dynamic Map Field Operational Tests

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Status report of Dynamic Map Field Operational Tests 14 th, November, 2017 MITSUBISHI ELECTRIC CORPORATION YOSHIAKI TSUDA 0

1.Positioning of field operational test Test details a. Validation of specifications and precision of static, high-accuracy 3D map data b. Validation of data updating and distribution systems c. Validation of linkage of dynamic data delivered from infrastructure, etc. a.specifications and precision of map data GNSS b. Updating and distribution of data Laser scanner Camera Milliwave radar c. Use of dynamic data Information on road regulations Information on traffic congestion Road update information Information on falling objects, etc. Functions of the Dynamic Map Center Linking of dynamic data from public information and infrastructure with the dynamic map * Dynamic Map Field Operational Test Briefing (Material created by NEDO) 1

The Field Operational Tests are implemented using the following framework. SIP-adus Promoting Committee 2.Framework of Dynamic Map FOT FOT Planning TF Large-scale Field Operational Test Operation Executive Secretariat System Implementation WG Map Structuring TF Dynamic Map FOT WG Dynamic map field operational test contractor (Operational Secretariat) Participants in Field Operational Tests (companies or individual persons) Stakeholders of Field Operational Tests OEM : JPN x 7 : Overseas x 3 Supplier : JPN x 4 : Overseas x 2 : Others(+university) x 3 Total: 19 parties (2017/11/14 now) 2

3.Framework of Dynamic Map FOT The management of the dynamic map field operational test is conducted under the following organization. Contracting Dynamic Map FOT Consortium NEDO Issue of instructions and conferring Person responsible for R&D Yoshiaki Tsuda Chief engineer Mitsubishi Electric Corporation Mitsubishi Electric Corporation (Lead company) Aisan Technology Co., Ltd. Increment P Corporation Zenrin Co., Ltd. Toyota Mapmaster Inc. Pasco Corp. 3

4.Schedule of Dynamic Map FOT The overall schedule for the dynamic map field operational test is shown below. September 15, 2017, to December 28, 2018, weekdays from 9:00 a.m. to 5:00 p.m. Major category Provision Evaluation Minor category Provided data, tools, etc. Map data 300km map data 600km map data section Provides Evaluates Provides Evaluates 2017 2018 7 8 9 10 11 12 1 2 3 4 5 6 7 8 9 10 11 12 Evaluation of features and attributes, requests for improvement of map data, etc. Updated map data Provides Evaluates Updated data (with participant srequests) Provides Evaluates Reflection of opinions Semi-static and semidynamic data Provides Evaluates Dynamic data Provides Evaluates Meetings Dynamic Map Field Operational Test WG 1 st meeting September 15 12/15 Second meeting 11/14-16 SIP-adus Workshop 3/13 Third meeting 5 ~ 12 4~9 meeting 4

Route name Section Link length(km) JobanExpressway Misato Junction Yatabe Interchange 60.4 Metropolitan Expressway 5.Scheduled test area of Large-Scale FOT Kosuge Junction Misato Junction 20.4 C2,Bayshore Route 120.2 Shibuya Route, C1 (partial) 30.2 Tomei Expressway Yokohama Machida Interchange Hadano Nakai Interchange Gotemba Junction - Shimizu Ihara Interchange 60.8 125.4 Total of new segments 417.4 Supplied area total (2016 measurement section + new measurement section) about 677km in each direction 677.8 (260.4+417.4) 新橋駅 東銀座駅 新豊洲駅 Legend Section prepared in 2016 Section prepared in 2017 Source: Excerpted from Cabinet Office press release (November 15, 2016) 5

6.Data model for dynamic map Navigation map Location reference method Dynamic map Dynamic information (nearby vehicles, pedestrians, signal information, etc.) Semi-dynamic information (accident information, traffic congestion information, short range weather information, etc.) Semi-static information (traffic restriction information, road construction information, long range weather information, etc.) Static information (road surface information, lane information, etc.) Collaborative area (features used by many OEMs) Competitive area (features designed by individual OEMS for product differentiation purposes) Basic maps supplied by SIP adus (essential features as stipulated in the data specifications) * Road shoulder * Center line * Lane line * Lane edge * Stop line * Pedestrian crossing * Road marking * Traffic signal Dynamic information Semi-dynamic information Static information * Traffic congestion information * Road construction restriction information * Traffic restriction information, etc. Distribution of the above information is currently being coordinated * Road sign * Carriageway link * Lane link * Intersection lane link * Area-formed intersection * CRP node underline features are cooperative area with foreign map suppliers Additional data prepared by test participants based on test contents and functions to be implemented Semi-static information 6

Data model for dynamic map =Real & Virtual features Static high-accuracy 3D map data is composed of real features and virtual features. They are defined as indicated below. Category Definition Supplied Feature Real feature Virtual feature 7.Real features and virtual features The shape of the real-world feature was acquired Features which do not exist in the real world but can be created from real features Road Shoulder Center Line Lane Line Lane Edge Carriageway Link Lane Link Comon Location Reference Node Stop Line Pedestrian Crossing Road Marking Traffic Signal Road Signage Intersection Lane Link Intersection Area 7

8.Example of Real & Virtual features Road Signage real feature Traffic Signal real feature Pedestrian Crossing real feature Intersection Area virtual feature Traffic Signal real feature Road Signage real feature Legend Pedestrian Crossing real feature : Lane Link [Virtual feature] : Carriageway Link [Virtual feature] : Carriageway Line [real feature] : Intersection Area [Virtual feature] Stop Line real feature : Road Marking (instruction) [real feature] : Road Shoulder [real feature] 8

9.Overall System Architecture for DM FOT Information source Static information (2)+(3) (1) Dynamic map center function (2)+(3) (1) Map updating Data distribution function Upstream server Upstream server (1) Distribution of media (1) Map updating (1)(2)(3)(4) DM data Conversion (2)+(3) Look-ahead information receiver Dynamic information receiver ECU Radio beacon (includes FMbeacon.ex.) (4) Information relay judgment device Camera Optical beacon Radio beacon Traffic lights Legend (4) Dynamic information (3) Semi-dynamic information (2) Semi-static information (1) Static information DM: Dynamic map (4) Dynamic (3) Semi -dynamic (2) Semi-static (1) Static (4) Optical/radio (2)+(3) Distributed data (1) Map update data Figure: Overall composition of the system for the Dynamic Map Field Operational Test (preliminary draft) Information on intersections near current driving location Traffic information in the driving area (by prefecture) Yellow: Static map data Figure: Display in the dynamic map viewer (draft) Note: The composition shown above includes some items currently being negotiated with related parties. Red: Semi-static and semi-dynamic information 9

10.System Architecture for Dynamic Map FOT Overall system configuration is as follows. Mobile phone network (closed mobile network) Base station (1)Dynamic map center function (2)Dynamic map distribution center function Basic maps, semi-static and semi-dynamic information Basic map (DVD, etc.) #Road traffic information #plobe data (NEDO other system) Basic map Semi-static and semi-dynamic information (3)Receiving terminal Basic map (DVD) SIM/smartphone Notebook computer Vehicle, etc. API Vehicle-mounted device, etc. (arranged by test participants) Control computer Vehiclemounted device (ECU) Figure: Dynamic Map Large-Scale Field Operational Test system configuration plan (overall image) 10

11.Example of Dynamic Map FOT In this dynamic map FOT, high-accuracy 3D Map Data is provided to experimental participants. (1)Dynamic Map:Basic maps supplied(highway) (2)Dynamic Map:Basic maps supplied(example Tokyo IC) Pedestrians are indicated with small yellow dots Tunnel closure locations are indicated with yellow dots and winter closure locations are indicated with thick blue lines The cause and restriction content are displayed as vehicle received information (3)Dynamic Map(Highway):tunnel closure information and winter closure information Vehicle data direction is indicated with a yellow Signal conditions (colors, arrows) are indicated as vehicle received information (4)General road vehicle, pedestrian, and traffic signal information(intersection before the Big Sight) 11

12.Objectives of participation in the DM FOT Category Participation objective No. of responding companies (including overlapps) Data evaluation Desire to evaluate dynamic map accuracy 13 Specification/st andardization Technical confirmation Desire to confirm dynamic map specifications and identify issues Desire to reflect company's own needs in dynamic map specifications Desire to contribute to dynamic map standardization Desire to use dynamic maps in own company s systems and verify them Desire to confirm compatibility of dynamic maps with autonomous vehicles 12 4 3 6 7 12

13.Contents of field operational test Test driving on public roads Vehicle type No. of responding companies (including overlaps) Scheduled Autonomous vehicle (equivalent to level 3) 2 Not scheduled or undecided Autonomous vehicle (equivalent to level 2) 2 Autonomous vehicle (equivalent to level 1 or unknown) Autonomous vehicle not to be used (ordinary vehicle to be used) Undecided 2-2 5 8 * Automated driving level is sorted by SIP-adus R&D plan (April 2017). 13

14.Conclusion Thank you for your kind attention! We hope to report the results of Dynamic Map FOT in the next year. 14

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