Abstract:
A vehicle control-system includes an automated driving controller and a vehicle-side communication section. The automated driving controller executes automated driving in which at least one out of speed control or steering control of a vehicle is performed automatically, and executes automated driving in a mode from out of plural modes with differing degrees of automated driving. The vehicle-side communication section communicates with a server for managing characteristic information of a vehicle occupant. The automated driving controller controls automated driving based on the characteristic information of the vehicle occupant received from a server-side communication section using the vehicle-side communication section.
Abstract:
A driving support apparatus that sets a running road, on which a vehicle is able to run, on the basis of a road marking that indicates a lane boundary or a prohibited area and that, when the vehicle deviates from the running road, issues a warning or performs assisting so as to cause the vehicle to run within the running road changes a determination criterion, based on which a warning is issued or assisting is performed so as to cause the vehicle to run within the running road, on the basis of a degree of curve of the running road.
Abstract:
A method and system for generating a torque map operating a vehicle's all-wheel drive (“AWD”) system are disclosed. A model describing how an all-wheel drive (“AWD”) electronic control unit (“ECU”) included in the vehicle processes data received from one or more sensors or vehicle subsystems is generated and executed on a computing device so that the computing device emulates operation of the AWD ECU. The computing device captures data from a controller area network (“CAN”) included in the vehicle and data from the vehicle describing wheel torque while emulating operation of the AWD ECU. A raw torque value is generated by the computing device from the data from the CAN and wheel torque. The raw torque value is used to generate a torque value associated with an engine speed and with an intake air pressure obtained from the data captured from the CAN.
Abstract:
A vehicle sensor system consisting of video, radar, ultrasonic or laser sensors, oriented to obtain a 360 degree view around the vehicle for the purpose of developing a situation or scene awareness. The sensors may or may not have overlapping field of views, or support the same applications, but data will be shared by all. Orientation of the sensor to the vehicle body coordinates is critical in order to accurately assess threat and respond. This system describes methods based on measuring force and rotation on each sensor and computing a dynamic alignment to first each other, then second to the vehicle.
Abstract:
In a driving support apparatus that sets a running road, on which a vehicle is able to run, on the basis of a road marking that indicates a lane boundary or a prohibited area and that, when the vehicle deviates from the running road, issues a warning or performs assisting so as to cause the vehicle to run within the running road, when the width of a lane defined by the road marking that indicates the lane boundary is narrow, the running road is set by allowing a deviation from the lane having a narrow width. It is possible to effectively utilize the driving support apparatus by increasing a chance of using the driving support apparatus without unnecessary support.
Abstract:
A vehicle sensor system consisting of video, radar, ultrasonic or laser sensors, oriented to obtain a 360 degree view around the vehicle for the purpose of developing a situation or scene awareness. The sensors may or may not have overlapping field of views, or support the same applications, but data will be shared by all. Orientation of the sensor to the vehicle body coordinates is critical in order to accurately assess threat and respond. This system describes methods based on measuring force and rotation on each sensor and computing a dynamic alignment to first each other, then second to the vehicle.
Abstract:
A vehicle sensor system consisting of video, radar, ultrasonic or laser sensors, oriented to obtain a 360 degree view around the vehicle for the purpose of developing a situation or scene awareness. The sensors may or may not have overlapping field of views, or support the same applications, but data will be shared by all. Orientation of the sensor to the vehicle body coordinates is critical in order to accurately assess threat and respond. This system describes methods based on measuring force and rotation on each sensor and computing a dynamic alignment to first each other, then second to the vehicle.
Abstract:
A method for reinitializing vehicle parameters stored in a memory of a controller in a motor vehicle after a power loss to the controller includes the steps of determining whether predetermined conditions are right for transferring at least one vehicle parameter stored in a volatile memory of a controller, transferring the vehicle parameter stored in the volatile memory to a non-volatile memory if the predetermined conditions are right for transferring the vehicle parameter, determining whether predetermined conditions are right for re-initializing the vehicle parameter after a power loss to the controller, transferring the vehicle parameter from the non-volatile memory to the volatile memory if the predetermined conditions are right for re-initializing the vehicle parameter, and initializing the vehicle parameter with a predetermined initial value stored in the non-volatile memory to the volatile memory if the predetermined conditions are not right for re-initializing the vehicle parameter.
Abstract:
Techniques described are related to determining when a discrepancy between data of multiple sensors (e.g., IMUs) might be attributable to a sensor error, as opposed to operating conditions, such as sensor bias or noise. For example, the sensor data is passed through one or more filters (e.g., bandpass filter) that model the bias or noise, and the filtered data may then be compared for consistency. In some examples, consistency may be based on residuals or some other metric describing discrepancy among the filtered sensor data.
Abstract:
A method for positioning a steering wheel of a motor vehicle in a rest position and/or an easy-entry position. The steering wheel has an operative connection to an adjustment means via which the steering wheel can be moved in a steering wheel adjustment field. A most recently set steering wheel position is established as the current steering wheel position. A target position in the steering wheel adjustment field, which represents the maximum increase in space for a driver in relation to the currently set steering wheel position, is determined. This target position is established as a rest position and/or as an easy-entry position. The steering wheel is moved into the established rest position and/or easy-entry position.