Skip to main content

Kyocera participates in self-driving bus test in Japan

Kyocera has installed roadside units to enable Vehicle to Infrastructure (V2I) communications for a self-driving bus test in Japan. The Mobility Innovation Consortium, a group led by East Japan Railway (JR East), is organising the three-month trial to evaluate self-driving technology for bus transit applications. Advanced Smart Mobility will provide the bus, which will operate on JR East’s bus rapid transit (BRT) lines in Rikuzentakata City, Iwate Prefecture. High-sensitivity magnetic impedance
December 21, 2018 Read time: 2 mins

897 Kyocera has installed roadside units to enable Vehicle to Infrastructure (V2I) communications for a self-driving bus test in Japan.

The Mobility Innovation Consortium, a group led by East Japan Railway (JR East), is organising the three-month trial to evaluate self-driving technology for bus transit applications.

Advanced Smart Mobility will provide the bus, which will operate on JR East’s bus rapid transit (BRT) lines in Rikuzentakata City, Iwate Prefecture.

High-sensitivity magnetic impedance (MI) sensors from magnetic markers placed on the BRT routes will identify the position of the bus. Tests will be carried out to assess the operation of the bus autonomous lane-maintenance and speed control systems. The vehicle will operate at speeds of 40kmh or lower while stopping at designated positions.

Precision docking tests will utilise magnetic markers which communicate spatial information to stop the bus automatically as it reaches the platform of the BRT station.

A third test will use radio communication between the bus and location-detection systems to verify the ability of a bus to negotiate passage on a BRT roadway wide enough for one vehicle, as another vehicle approaches from the opposite direction.  

Additionally, location-detection tests will use GPS to verify navigation and distance-measurement systems.

Aichi Steel will supply magnetic markers and Softbank is responsible for multi-global navigation satellite system terminals. Nippon Signal is providing the signal light and signal control equipment while NEC is handling the target track creation and control of the magnetic marker system.

NEC converts information about the road design map, such as curves, lines, and slopes, into electronic data to create the target path. “The information from the magnetic markers and RFID tags is then read by the bus so that it can identify its position,” the company says. “This system supports smooth driving along the target path.”

Related Content

  • September 26, 2023
    FHWA collaborative framework on automated driving systems: an explainer
    USDoT FHWA has put together a collaborative framework to help secure the roll-out of automated driving systems in the US. John Harding of FHWA explains the thinking…
  • July 30, 2013
    Tollers make way as NextNav muscles into 902-928MHz spectrum
    Toll operators and Progeny trade claim and counter claim about the potential ramifications of operating in the 902-928MHz spectrum, as Jon Masters finds out. Two months after the Federal Communications Commission (FCC) determined that Progeny can start commercial operation of its NextNav location finding service, the dust has begun to settle. The tolling industry has had a chance to reflect on how this may impact its operations, in the knowledge that NextNav will share the 902-928MHz frequency band with RFI
  • May 8, 2015
    IRD complements WIM with tyre under-inflation detection
    To complement its existing WIM offering, IRD has introduced a system to detect under-inflated and flat tyres at highway speeds. Tyre inflation pressure has both safety and economic impacts for road users and none more so than with commercial vehicles. An underinflated tyre has decreased directional control, increased risk of catastrophic failure, and negatively impacts tyre life and fuel economy. In June 2014 the USDOT published Large Truck and Bus Crash Facts 2012 in which the Federal Motor Carrier Safety
  • October 26, 2017
    USDoT looks at the costs and potential benefits of connected vehicles
    David Crawford looks at latest lessons learned from the trials of connected vehicles in the US. The progress of connected vehicle (CV) technologies takes centre stage among the hot topics highlighted in the September 2017 edition – the first since 2014 – of the ‘ITS Benefits, Costs and Lessons Learned’ survey from the US ITS Joint Program Office (JPO). The organisation is an arm of the US Department of Transportation (USDoT).