Abstract: A travel controller recognizes an action of a driver of a vehicle from image data of the driver. The travel controller obtains information indicating that determination of whether autonomous driving of the vehicle is permissible cannot be given. When the information indicating that determination of whether the autonomous driving of the vehicle is permissible cannot be given is obtained, the travel controller operates a human interface to request the driver for an instruction to drive the vehicle. The travel controller determines whether the driver is giving an instruction to drive the vehicle from an action of the driver recognized in response to the request for an instruction to drive the vehicle. When determined in the determination process that the driver is giving an instruction to drive the vehicle, the travel controller operates a drive system of the vehicle to permit autonomous driving of the vehicle.

Abstract: Cautious driving and cautious driving speed determination for an autonomous vehicle is responsive to receiving a non-yield backup prediction for the vehicle regarding a traffic participant in a region of interest in a road network surrounding the vehicle, the non-yield backup prediction including a non-yield probability value for the traffic participant not yielding to the vehicle. Driving information, including speed, for other traffic participants within the region of interest is obtained from a sensor system, and an average speed of the other traffic participants is determined. A driving system determines a cautious driving speed for the vehicle by calculating a reverse probability value, which is a reverse percentage of the non-yield probability value relative to a maximum value for it, and multiplying the average speed of the other traffic participants by the reverse probability value. The driving system controls the vehicle to reduce its speed to the cautious driving speed.

Abstract: During a period from when an automated driving vehicle starts pulling over to a sidewalk side until the vehicle pulls over completely thereto, an operation control section causes the vehicle to immediately stop when an object that can be an obstacle exists in at least one of a middle front area, a sidewalk-side front area, and a sidewalk-side side area that are areas each within a predetermined distance at a middle front, at a sidewalk-side front, and on a sidewalk-side side of the vehicle, respectively. During the period, the operation control section does not cause the vehicle to stop when the object does not exist in any of the middle front area, the sidewalk-side front area, and the sidewalk-side side area, even when the object exists in an area surrounding the vehicle other than the middle front area, the sidewalk-side front area, and the sidewalk-side side area.

Abstract: Systems and methods for creation of custom behavior zones for autonomous vehicles, providing a more tailored experience for passengers as well as businesses. Custom behavior zones allow passengers to request or select a specific pick-up/drop-off location on private property. In some examples, custom behavior zones are created in private gated communities, on residential properties with long driveways, on government property, and at businesses that have multiple entrances and/or offer different services at various locations on the business property.

Abstract: A radar controller for a vehicle and a method therefore are provided. The radar controller includes a radar that detects a passenger located inside the vehicle and an obstacle located outside the vehicle and a controller that determines sensitivity and a detection speed corresponding to an operation mode of the radar and controls the radar to operate at the determined sensitivity and the determined detection speed.

Abstract: A processing device acquires map data that has road information, acquires detection results detected by one or more detectors that detects surroundings of a first mobile object, and cross-checks a position of a second mobile object included in the detection results with the road information of the map data to determine whether or not the position of the second mobile object is included in a region indicating a road of the road information.

Abstract: A Coordinating Apparatus and Method is provided between Adaptive Cruise Control (ACC) and Predictive Cruise Control (PCC). The ACC system is configured to provide a target acceleration or deceleration based on maintaining a target distance from vehicles ahead. The PCC system is configured to provide a target acceleration or deceleration based on upcoming changes in elevation and maximizing fuel economy. The coordinating apparatus communicates with the ACC system and with the PCC system, and applies the lesser acceleration or greater deceleration between the ACC target acceleration or deceleration and the PCC target acceleration or deceleration. The apparatus and method may apply the target acceleration or deceleration by way of a vehicle speed control apparatus, such as a vehicle engine controller.

Abstract: A driving assistance system for a vehicle includes a reception unit that is configured so as to receive surroundings data of the vehicle, an evaluation unit that is configured, based on the surroundings data, so as to determine a traffic density in a surrounding area of the vehicle, and a determination unit that is configured so as to establish a confidence for the traffic density determined by the evaluation unit.

Abstract: A vehicle control system includes an information acquirer configured to acquire vehicle surrounding information, and a controller configured to execute driving assistance control. The controller is configured to set a first line as a target traveling line when an operation status of the driving assistance control is ON. The controller is configured to set, when a driving switching request is made, the target traveling line to cause a vehicle to travel along a second line displaced from the first line by a predetermined displacement amount after a specific timing that is a timing when a predetermined time has elapsed from a requested timing.

Abstract: The present invention provides a saddle ride type vehicle including a sensing unit configured to sense a four-wheel vehicle that is present in front of a self-vehicle and is traveling in a travel lane of the self-vehicle, and a control unit configured to, in a case where the four-wheel vehicle is sensed by the sensing unit, perform follow-travel control for causing traveling of the self-vehicle to follow traveling of the four-wheel vehicle, wherein the sensing unit senses a vehicle width of the four-wheel vehicle, and the control unit, in the follow-travel control, controls a travel position in a vehicle width direction of the self-vehicle so that at least a portion of the self-vehicle falls within a region within the vehicle width of the four-wheel vehicle.

Abstract: A driving assistance apparatus includes a first emotion estimating unit, a second emotion estimating unit, a storage, and a notification controller. The first emotion estimating unit is configured to estimate an emotion of a driver of a vehicle. The second emotion estimating unit is configured to estimate an emotion of a traffic participant around the vehicle. The storage is configured to store data on a first location where the driver of the vehicle has felt no danger and the traffic participant has felt danger from the vehicle. The notification controller is configured to notify the driver of the stored data on the first location.