ITS radiocommunications toward automated driving systems in Japan

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Session 1: ITS radiocommunications toward automated driving systems in Japan 25 March 2015 Helmond, the Netherland Takahiro Ueno Deputy Director, New-Generation Mobile Communications Office, Radio Dept., Telecommunications Bureau, Ministry of Internal Affairs and Communications (MIC), Japan

Contents 1 1. Radiocommunications toward next generation ITS 2. SIP Automated driving system V V and V I V P 79 GHz high resolution radar 3. WRC-19 Agenda Item proposal 4. Summary

Toward next generation ITS 2 Now Near Future Future Optical Beacon Radio Beacon FM multiplex broadcasting PiPiPi Radar Car navigation, etc. VICS Collision mitigation brake system PiPiPi Safe driver assistance system ETC ITS spots Lane keep assist Automated driving system Advancement of Drive Assist Systems Individual systems ADAS: Using sensors such as camera, radar, ) Advanced (ADAS + Co-operative): Fusion type. In the future, ADAS + Co operative fusion type systems will be deployed.

700MHz band ITS: Planned actions 3 (1) Security functions (4) Overall verification Human Machine Interface (HMI) (2) Message sets and communication protocol (3) Interoperability testing Term: 2014-2016 Satellite photo: 2015 Google Map:Copyright(C) INCREMENT P CORP. Budget: 2014 $2.1M 2015 $1.0M 2016 T.B.D. Upgrade functions, such as security,. MIC started FOTs in support of early deployment of 700MHz ITS from 2014.

SIP - Overview 4 Aiming to realize Science & Technology Innovation through promoting R&D overlooking from basic research to implementation and commercialization by cross-ministerial cooperation. <Implementation Structure> Council for Science, Technology and Innovation (CSTI) appoints Program Directors (PD) for each research theme and allocates the budget. Consists of ministries and industries. Governing Board(Members: CSTI key figures of the cabinet) advises and evaluates. CSTI Governing Board PD (Program Director) Management Agency (Funding Agency) Research organizations Universities, Corporations, Research institutes, etc. Innovation of Automated Driving for Universal Services (SIP-adus) - Mobility Bringing Everyone a Smile - Promoting committee PD (chair) Related ministries, Management agencies, Experts from academia and public sector Established for each project Appointed top class leaders as PD from Industries and academia through an open recruitment PD: H. Watanabe (Toyota motor corporation)

SIP-adus: Mile stones 5 1.Reducing road crashes and etc. Achieving the national goal : The national infrastructure structure for achieving the national goal 2.Making self-driving system come true and becoming widely used the system: Turning the system into a commercial reality and promoting with research and development through A to Z and concurrent international cooperation 3.Putting into practical use of public transportation system for next-generation: Developing and working with as milestone on the road to Tokyo Olympics and Paralympics 2014 2015 2016 2017 2018 2019 2020 2030 Development and demonstration of Self-driving system Smoother transportation at the sag section on a freeway Creating trucks in one row, that have the same distance between each other and go at the same speed ITS spot Limited Highway Advanced Driving Aid ASV ACC ASV Automatic brake Public Road Advanced Driving Aid Demonstration experiment Quasi self-driving system (level 2) Demonstration experiment National target for road crash fatalities not greater than 2500 people Commercialization of quasi self-driving system (level 2) Pre-Tokyo Olympics & Pre-Paralympics Tokyo Olympics & Paralympics Practical realization in Tokyo of quasi self-driving system (level 3) Commercialization of level 3 Spread of transportation system for next-generation Quasi self-driving system (level 3 ) Spread Complete Self-Driving System DSSS Drive assist system (ITS + automatic brake )

SIP-adus: Element required for Automated Driving 6 Three element for Automated Driving Traffic environment Cooperation area awareness decision operation Competition area By using radiocommunications Distance measurement Perimeter monitoring Information

SIP-adus: ICT for Automated Driving 7 V-V Communication and V-I Communication V-P (Pedestrian) Communication Infrastructure Radar System Drawing up communications protocol and etc. Developing direct communications style which uses dedicated terminals, mobile phone network application style system and etc. Developing 79 GHz band high-resolution radar which can identify people, cars and etc. V I Communication Infrastructure Radar System V P Communication V V Communication The accidents which cannot be covered with on board systems will be complemented by ITS

SIP-adus: V-V and V-I 8 Automated Driving for Commercial Vehicle Cooperative Automated Driving Enhanced and Sophisticated Communications Highly reliable Low latency Safe and Smooth Intersection Passing Assist Blind intersection Collision avoidance Safety driving support at intersection V-I Communication (700MHz) Source: ITS WC home page V-V Communication (700MHz) SIP expedites the enhanced and sophisticated communications toward automated driving systems.

SIP-adus: V-P 9 Direct communication Vehicle to Pedestrian communication system GPS, GLONASS Quasi zenith satellite system (QZSS) Consideration of situations where accidents frequently occur and situations where danger is erroneously identified ARIB STD T109 Likely design of terminal 700 MHz band communication High precision positioning Danger identification application Positional information, speed, direction Accidents when crossing a straight road Accidents at intersections Overpass environment (erroneous danger identification) For V P system, SIP developed direct communication system.

SIP-adus: V-P 10 Mobile communication Vehicle to pedestrian communication system 4caution 3Detection of approaching 5Alarm sounds 2transmit of the Position information and approach information 4caution 5Alarm sounds 1approach R&D subsystem IVI(In-Vehicle Infotainment) Mobile Network R&D subsystem ECU CAN ECU G/W GPS Data Broker Apps#0 Apps#1 Apps#n Web runtime HW+OS Personal Agent Internet ECU ECU Pedestrian Information CAN: Controller Area Network ECU: Electronic Control Unit G/W: Gateway Mobile communications are also used for P V system. Road & Traffic Information Cloud OEM/Tier1 Data Center Insurance, Roadside Assistance, etc.

SIP-adus: Short-range radar 11 Quick report of field trial in FY2014 Pink colored frames indicate static objects without Doppler shifts. Yellow colored frames indicate moving objects with Doppler shifts.) Safety driving support system toward social implementation Alert indication バイク Sensing Notification Crash prediction 79GHz short range high resolution radar will be used for safety support in automated driving systems.

SIP-adus: International Workshop 12 Workshop on Connected and Automated Driving Systems Organizer: Cabinet Office, Government of Japan Date: November 17-18, 2014 Venue: United Nations University, Tokyo, Japan Session: Connected Vehicles Perception of driving environment through communication Moderator: Oyama, ARIB, Japan Speakers: USA: DOT, Michigan DOT Europe: ERTICO, Continental, Renault Japan: MAZDA http://www.sip-adus.jp/index.html Experts from Europe, Americas, and Asia Pacific shared progress of related projects and discuss technical and non technical challenges for deployment

1.Overview Date: March 6, 2015 Venue: Nikkei Hall, Tokyo Organizer: MIC, Japan Attendees: 530 Speakers: 14 Exhibitor: 18 MIC: ITS workshop ICT for Next Generation ITS 13 2. Presentations ITS radiocommunications related organizations from overseas (Mr. Andersen, Chairman of ETSI TC ITS was invited) and in Japan made the following presentations: - Status report of ITS development, overseas and Japan - Report of ITS radiocommunications R&D projects coordinated by MIC

SIP-adus: 79GHz band high-resolution radar 14 Related standards toward WRC-15 Dec. 2012: Approved ARIB STD-T111 79 GHz band high-resolution Radar February 2014: Published ITU-R Recommendation M.2057 Systems characteristics of automotive radars operating in the frequency band 76-81 GHz for ITS applications February 2015: Published ITU-R Report M.2322 Systems characteristics and compatibility of automotive radars operating in the frequency band 77.5-78 GHz for sharing studies November 2015: WRC-15 Agenda Item 1.18 Primary Spectrum Allocation of 77.5-78 GHz for Automotive Radar Applications MIC has been actively promoting WRC 15 Agenda Item 1.18 79GHz band high resolution radar.

WRC-19: Proposal of Agenda Item 15 Global harmonization of frequency bands for ITS applications in the land mobile service Background: Considering possible interference sharing spectrum with DSRC/ITS and RLAN (Wi-Fi). APG15-4 (February 2015, Bangkok): Proposed by Japan Future work: If it is approved as a new Agenda Item (A.I.) in WRC-15, we have to work together toward WRC-19. Requires global support for this WRC 19 Agenda Item, especially from Europeans and Americas.

Summary 16 1. Autonomous driving is key word for ITS in Japan. 2. In accordance with the New ICT Strategy, SIP included three ITS projects which have been promoting R&D by MIC. 3. 700MHz band ITS services will be deployed in Japan within this year. 4. 79 GHz band high-resolution automotive radar will be deployed worldwide after WRC-15. 5. Japan proposed a WRC-19 agenda item on Global harmonization of ITS Spectrum to APG. Let s work together!