• Session No.61 Social Change and Next Generation Mobility (OS)
  • May 28Pacifico Yokohama North G418+G4199:30-11:35
  • Chair: Takahiro Suzuki (Reitaku University)
Contents
In recent years, alongside the advancement of CASE and industrial convergence driven by MaaS, the acceleration of digitalization through DX, the promotion of decarbonization via GX, and innovations in cutting-edge technologies like AI and digital twins are bringing significant changes to society as a whole. Mobility is no longer merely a means of transportation; as a foundation connecting energy, information, cities, and people, it is becoming indispensable for ensuring sustainability and resilience. This OS addresses a broad range of topics concerning next-generation mobility that responds to societal transformation: what institutional frameworks should be designed, how systems should be configured to accommodate diverse individual and regional characteristics, and what technological development is required to achieve this. It aims to facilitate multifaceted discussions spanning not only the automotive field but also medicine, information science, business administration, and law.
Committee
Mobility Society Committee
Organizer
Yoshihiro Suda (Tokyo University of Technology), Takahiro Suzu (Reitaku University), Toshiyuki Sugimachi (Tokyo City University), Takashi Kobayashi (NALTEC)
For presentations that will not be available video streaming after congress, a “✕” is displayed in the “Video” column, so please check.
No. Video Title・Author (Affiliation)
1

Trend in international discussion on safety regulation for Automated Driving System, etc

Toru Shimano (MLIT)

Automated Driving is expected as one of the key solutions to various social issues such as reducing traffic accidents and sustaining local transportation. This presenatation provides a brief overview of recent trends of international discussion regarding safety regulation for Automated Driving System, etc.

2

Study on Reducing Communication Disruptions for Achieving High-Reliability Communication During Automobile Operation
-Implementation of a Handover Control xApp Using OpenAirInterface and Evaluation in a Digital Twin Environment-

Haruki Osaki (Kozo Keikaku Engineering)・Akira Ito (Toyota Motor)・Masaya Sakamoto・Tetsuya Iye・Shinichiro Kataoka (Kozo Keikaku Engineering)

The realization of an advanced mobility society requires stable communication even in mobile environments. This study implemented a control xApp based on O-RAN Near-RT RIC to suppress communication interruptions during handovers on the OpenAirInterface. Furthermore, by constructing a wireless digital twin environment to replicate blockage during driving, we evaluated the impact of the proposed control method on interruption duration. This paper reports our latest results.

3

A Study on Reducing Operator Workload through Field-of-View Design in Remote Bus Operation Environments

Naoki Furugohri (Tokyo City University Graduate School)・Toshiyuki Sugimachi・Toshiaki Sakurai・Syuichi Yahagi (Tokyo City University)・Masaaki Onuki・Kimihiko Nakano (The University of Tokyo)・Jongseong Gwak (Takushoku University)

Remote operation is considered as a backup when automated buses go beyond their Operational Design Domain. Since buses use many mirrors, remote operators may experience increased workload due to multi-directional monitoring. This study proposes a remote-driving environment with a display layout based on the effective visual field to reduce workload and evaluate its effectiveness using a driving simulator.

4

The Application of Encrypted Control Technology to CACC

Takaharu Yamada (dSPACE Japan)・kiminao Kogiso (The University of Electro-Communications)

CACC, known as the Cooperative Adaptive Cruise Control system, is a technology that maintains a constant distance between vehicles during driving by wirelessly transmitting information such as the speed and accelerator position of the preceding vehicle to the following vehicle. However, it is necessary to operate the communication channels and control parameters securely. In this study, we focused on Encrypted Control technology that enables operation with encrypted communication channels and control parameters, and attempted to apply it to CACC.

5

A port operation use case from the EU MODI project involving SAE Level 4 automated driving

sven Jansen・Antoine Schmeitz・Masamichi Kiyoyanagi (TNO)

One key development of the EU MODI project concerns standardisation of an interface to control automated vehicles in the logistic system. The interface is validated in a use cases executed in The Netherlands. In this use case an unmanned automated truck is sent around a port terminal for picking up/dropping off a container. Because the truck is unmanned, it also requires the interactions with the logistics systems to be automated. In this paper the use case and system architecture will be explained and results of use case demonstration in the port of Rotterdam will be shown.

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