Autonomous Driving Technology for Connected Cars

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Autonomous Driving Technology for Connected Cars With the reduction of automobile accidents being an important concern for the motoring public, there has been a lot of activity surrounding the development of preventive safety techniques that assist driving to avoid accidents. As the next step in this process, automotive manufacturers and suppliers have, in recent years, accelerated the research and development of technologies for autonomous driving that further develop driver assistance s to the point where they can take over from the human driver. Systems for autonomous driving are complex, involving the processing and analysis of large amounts of data, including sensing information obtained from the surrounding environment, and a wide variety of technologies such as for information links to data centers and other infrastructure. To expedite the implementation of autonomous driving s, Hitachi is working with its group companies on technology development to help overcome challenges faced by society.

Autonomous Driving Technology for Connected Cars Overview Hitachi Initiatives for Future of Autonomous Driving Yoshito Amino Nobuhiro Akasaka Makoto Kudo, Ph.D. Yoshikazu Tsuda Nobuyasu Kunii 1. Introduction Among the issues surrounding mobility are the increasing number of vehicles on the road and the aging of the driving population, and associated with these are expectations from society for eliminating traffic accidents, reducing congestion, and cutting carbon dioxide (CO 2 ) emissions. Internet of Things (IoT) has been bringing significant changes to our way of life in recent years, with an acceleration in the development of technology for providing autonomous driving in the form of connected cars. Along with sensing techniques developed for driver assistance, advances in connected technologies are providing the motoring public with a high level of safety, security, and convenience. This article describes initiatives by Hitachi aimed at a future of autonomous driving that is safe, secure, and convenient. 2. Hitachi Initiatives for Autonomous Driving 2. 1 Business Concept and Past Activities The concept behind Hitachi s business is to contribute to society by supplying new solutions through an approach to car making that seeks to satisfy the needs of society, which include eliminating traffic accidents, protecting the environment, aiding mobility for the elderly, reducing congestion, and improving comfort, the aim being to create autonomous driving s that balance the four functions of safety, comfort, environmental performance, and time (see Figure 1). Past work has involved contributing to extending driver assistance s to turn them into crashproof cars, with the commercialization of stereo cameras for sensing in driver assistance s in 2008 and their adoption in the EyeSight * of Subaru Corporation. In February 2016, Hitachi undertook road trials of driving level 2 on Hitachinaka Road in Hitachinaka City, Ibaraki Prefecture, including lane changing when driving on a one-way road. Hitachi also collected data and performed testing in anticipation of autonomous driving by conducting a trial on the streets of a simulated city from December 2016 to March 2017 aimed at implementing automated driving on ordinary roads. The trial used a vehicle equipped with a sensor fusion capability that combined stereo cameras with other sensors. 2. 2 Scope of Hitachi s Business The spread of the IoT has seen information technology (IT) companies and service providers entering the autonomous driving and mobility services fields * EyeSight is a registered trademark of SUBARU CORPORATION. 46.

Collision-free Anti-skid Hacking-proof Stress-free driving Comfortable ride Personalization Figure 1 System Concept for Autonomous Driving The concept is based on using Smart ADAS, a further development of ADAS, to supply autonomous driving s that balance the four user values of safety comfort, environmental performance, and time. Safety Comfort Environmental performance Low fuel consumption Low load on environment Time Reach destination by quickest route Reliable prediction of arrival time ADAS: advanced driver assistance using the connected car as a platform. With one of its strengths being that it possesses both IT and operational technology (OT), Hitachi in June 2016 introduced its Lumada IoT platform that draws on this know-how built up over many years. Utilizing artificial intelligence (AI), security, analytics, and other core functions of Lumada, Hitachi supports a wide range of businesses in connected services and autonomous driving from the cloud (data centers), and satisfies a wide range of social needs by coordinating their operation (see Figure 2). 3. Roadmap for Autonomous Driving 3. 1 Levels of Autonomous Driving and Trends Definitions of autonomous driving levels differ somewhat between countries, with the US National Highway Traffic Safety Administration (NHTSA) having defined it in terms of levels 0 to 5 (see Figure 3). Both automotive manufacturers and suppliers are speeding up the development of autonomous driving, with a shift currently underway from level 1 [driver assistance, such as autonomous emergency braking (AEB)] to level 2 [partial, such as adaptive cruise control (ACC) and lane keeping assist s (LKS)]. It is anticipated that autonomous driving technology for highways will become available by around 2020, and for ordinary roads by 2025. Hitachi is following the development steps indicated on its roadmap in Figure 4 with the aim of bringing technology to market for each phase. Figure 2 Scope of Hitachi Businesses Hitachi has established businesses in a wide range of fields based on its Lumada IoT platform. Services Urban and CRM services Data center Connected car AI Security Lumada IoT platform Telematics communication unit Smart mobility and VRM services Analytics Advanced vehicle control s and more Autonomous driving CRM: customer relationship management VRM: vehicle relationship management AI: artificial intelligence IoT: Internet of Things Hitachi Review Vol. 67, No. 1 046 047 47.

Figure 3 Driving Automation Levels (SAE Criteria) The driving levels are broadly divided into those in which responsibility for assessing the conditions and driving the vehicle is with the driver and those in which it is the responsibility of the. Automation level 0 Full manual control 1 assistance 2 Partial 3 Conditional 4 High 5 Full Situation assessment System or or System or driver System SAE: Society of Automotive Engineers Driving Line of sight Steering wheel Pedals 3. 2 Advances in Autonomous Driving One potential area for advances in autonomous driving is the enhancement of functions for vehicle autonomy. Lv0 Lv2 Lv4&Lv5 Lv1 Lv3 assistance s are currently making a major contribution to reducing traffic accidents and are being extended to reduce driver workloads. They are reaching a high level of autonomous driving as the driving scenarios for which they are utilized gradually expand in scope to include automatic merging and lane changing on highways, and turning at intersections or automatically following the vehicle ahead during congestion on city streets. On city streets, in particular, the s need to cope with highly complicated situations, and while they are being implemented through advances in such technologies as extending sensing functions and localization (identifying vehicle position on a map), this will take some time as technical challenges still remain. Progress is also being made on autonomous driving developments for use in restricted areas or dedicated roads, another way in which autonomous driving is advancing. This involves advances based on interoperation with infrastructure with participation by local governments in the respective countries, and because it only operates within a limited range in the case of city streets, the implementation of advanced Figure 4 Roadmap for Autonomous Driving Hitachi is following the development steps indicated in the roadmap with the aim of bringing technology to market for each phase. Google * Urban and main roads *1 Main roads *2 and highways *3 Wider range of scenarios Turning at intersections ALC Automatic merging Lv2 ALC, Automatic merging Lv3+ Fully autonomous driving AI required (Main) highways Car parking Parking assist Automatic following Lv2, ACC, LKS Automatic following Lv3 Automatic valet parking Automation 1 2 3 4 level 5 No assistance Conditional High Full ACC: adaptive cruise control LKS: lane keeping assist ALC: auto lane changing * Google is a trademark or registered trademark of Google Inc. Main roads: *1 Including turning at intersections, *2 straight through only at intersections Highways: *3 Gate-to-gate (including merging and passing through toll gates) 48.

Figure 5 Advances in Autonomous Driving Advances in autonomous driving include those relating to sensing when driving on ordinary city streets and those relating to coordination with infrastructure in special areas. With technology being developed based on both approaches, the prospects for future level-5 fully autonomous driving are getting clearer. Cloud Level 5 Advances on ordinary city streets Expanded sensor functions Advances is special areas Localization accuracy (position on map) Coordination with infrastructure Traffic control autonomous driving is comparatively rapid. As the development of technology proceeds through these two different approaches, the prospect of full level 5 autonomous driving in the future is getting clearer (see Figure 5). 4. Hitachi s Technology Map and Activities 4. 1 Key Technologies for Autonomous Driving While technologies for achieving the roadmap for autonomous driving cover a wide range, recognition, connectivity, conveying intentions, and driving, cornering and stopping are each crucial. Accordingly, Hitachi is working on development of the following four technologies in particular (see Figure 6). (1) Sensor fusion for determining what is happening around the vehicle and AI techniques for processing the large amounts of data this produces. (2) Techniques for exchanging information [over-theair (OTA) upgrades and security] (3) Human-machine interface (HMI) technology for communicating intentions between the vehicle and the people riding in it. (4) Integrated vehicle control techniques that enable electronic control units for autonomous driving (AD-ECUs) to reliably follow the specified route. 4. 2 Sensing Enhancement and AI Hitachi is putting a lot of effort into developing automotive stereo cameras, which are important for sensing in front of the vehicle. These serve as sensors for gathering spatial information with high resolution, being better suited than monocular camera s to determining the drivable area around a vehicle, information that is essential for autonomous driving. Clarion Co., Ltd. has released a product called SurroundEye that provides omnidirectional sensing of the region around the vehicle by mounting cameras on the front grill, rear bumper, side mirrors, or other exterior locations. Clarion is also working to reduce the size and cost of millimeter-wave radar, a means of augmenting cameras that is less subject to environmental factors such as darkness or reflected light, providing 360 sensing through a sensor fusion that includes stereo cameras, SurroundEye, and millimeter-wave radar. Autonomous driving also requires the vehicle to accurately determine its current location on the map, and the accuracy of this can be enhanced by a matching process that compares the results of sensing with the map. Incorporating AI into these functions is accelerating improvements in autonomous driving by making it possible to keep driving in more complex situations. Hitachi Review Vol. 67, No. 1 048 049 49.

Figure 6 Technology Map With technologies that extend from autonomous driving to mobility services, Hitachi is responding to a wide variety of societal needs through the coordinated deployment of these technologies. Lumada IoT platform OTA/Security IVI HMI TCU Gateway ECU Map position unit Integrated vehicle control Integrated vehicle control ECU Chassis Powertrain ADAS/AD ECU C2X Sensors 360 sensing OTA: over the air HMI: human machine interface TCU: telematics communication unit ECU: electronic control unit C2X: car to something AD: autonomous driving IVI: in-vehicle infotainment 4. 3 Exchange of Information (OTA and Security) As the volume of information to be processed increases at higher autonomous driving levels, higher levels of information processing performance and reliability are needed to maintain a constant link with data centers and other infrastructure over public networks. Hitachi is combining automotive s technology with information and communications technology acquired from different product sectors to develop a variety of center-based services and onboard devices to serve as platforms for connected cars. This involves supplying solutions that combine different technologies. Examples include the use of OTA software upgrades to deal with increasing software size, gateway technology to provide security for connections to external networks, and computing techniques for the pre-processing of large amounts of information on the vehicle. 4. 4 Integrated HMI In recent years, advances in technology for high-speed and high-volume communications have enabled continuous access to a variety of cloud-based services from on board vehicles. The progress of autonomous driving is bringing major changes in the relationship between cars and people, not least in how people use the time they spend in those cars. In response to these changes, Clarion is developing and supplying integrated HMIs that interlink the digital devices inside the vehicle cabin to provide safe, comfortable, and convenient ways of presenting information and operating the devices, and also Smart Access functions for cloud connectivity that give access to cloud services via a network. 4. 5 Integrated Vehicle Control Autonomous driving must operate in such a way that the combined behaviors of driving, cornering and stopping are performed seamlessly, safely, and comfortably in all scenarios. Human drivers instinctively chose the best acceleration, braking, and steering inputs based on an awareness of road surface conditions, such as rain or snow. Along with enhancements to the performance of the individual components used 50.

by the engine, brakes, steering, and suspension to better suit them to autonomous driving, Hitachi is also developing controllers for integrated vehicle control that coordinate the control of each component based on the route specified by the autonomous driving/ advanced driver assistance (AD/ADAS) controller so as to maintain safety and reliably follow the specified route, while also providing a higher level of ride comfort than even professional drivers. These controllers are also equipped with backup functions to maintain operation in the event of a failure of the AD/ADAS controller. 5. Conclusions This article has described work being done on autonomous driving, an application that requires a very wide range of technologies. With technology and business experience in a wide variety of relevant fields, Hitachi intends to combine these technologies to achieve more advanced autonomous driving. Authors Yoshito Amino Global Business Planning Department, Safety & Information Systems Division, Hitachi Automotive Systems, Ltd. Current work and research: Strategic formulation of businesses and products related to safety and information s. Nobuhiro Akasaka SI-Control System Design Department, Development & Design Division, Safety & Information Systems Division, Hitachi Automotive Systems, Ltd. Current work and research: Development of s and controls related to the safety and information business. Society memberships: Society of Automotive Engineers of Japan, Inc. (JSAE). Makoto Kudo, Ph.D. Advanced Sensing Technology Development Department, Advanced Development Center, Technology Development Division, Hitachi Automotive Systems, Ltd. Current work and research: Development of autonomous driving technology. Society memberships: Society of Automotive Engineers of Japan, Inc. (JSAE), and The Institute of Electronics, Information and Communication Engineers (IEICE). Yoshikazu Tsuda Mobility and Manufacturing Systems Division, Industrial Solutions Division, Industry & Distribution Business Unit, Hitachi, Ltd. Current work and research: IT and OT solutions for car OEMs. References 1) Cabinet Office, White Paper on Traffic Safety in JAPAN 2016 (2016). 2) Ministry of Land, Infrastructure, Transport and Tourism, Investigative Committee Report on the Automated Driving Business, Action Policies toward Realization of Automated Driving (Summary), (Mar. 2017) in Japanese. 3) T. Shima et al., Fundamental Technologies Driving the Evolution of Autonomous Driving, Hitachi Review, 65, pp. 426 432 (Nov. 2016). 4) Human Factors Design Guidance for -vehicle Interfaces, NHTSA (2016). Nobuyasu Kunii Clarion Co., Ltd. Current work and research: Business strategy planning and R&D strategy planning for in-vehicle device development as Executive officer, CTO, of the R&D Strategy Division. Hitachi Review Vol. 67, No. 1 050 051 51.