Abstract:
The present application generally relates to a method and apparatus for obtaining incident related data in a motor vehicle. In particular, the system is operative to determine a vehicle to vehicle contract event or near contact event, transmit a request for data, such as video, numeric, and telemetry data, from proximate actors via V2X communications channel, or to request the data be transmitted to a network storage location.
Abstract:
A system for analyzing driver fitness to drive with consideration given to any of various conditions such as driver drowsiness, fatigue, and anxiety. The system includes a processing hardware unit, and a non-transitory computer-readable storage device comprising various modules to determine if the driver is impaired. The modules include an input interface module that, when executed by the processing unit, receives sensor data indicating a present driver health factor. A database module includes pre-established driver-profile data particular to a driver. And the modules include an activity module that, when executed by the processing unit, obtains the driver-profile data and the sensor data, and determines, based on the present health factor and the pre-established driver-profile data, fitness of the driver to drive. The disclosure relates in various embodiments to a computer-readable storage device, separately, and processes performed by the system and device.
Abstract:
A method of alerting a driver of a vehicle is provided. The method includes: receiving conditions data from one or more collision avoidance systems; determining an alert mode based on the conditions data; receiving a fault status indicating a fault of at least one of a haptic alert device, a visual alert device, and an auditory alert device; resetting the alert mode to an override mode based on the fault status; and selectively generating an alert pattern for at least one of a haptic alert device, a visual alert device, and an auditory alert device that does not have a fault based on the override mode of the alert mode.
Abstract:
A vehicle seat assembly is provided. The vehicle seat assembly includes a bottom seat member with a seat pan with a first side and a second side, a first bolster positioned on the first side of the seat pan, and a second bolster positioned on the second side of the seat pan. The first bolster defines a first depression. The vehicle seat assembly further includes a haptic alert assembly with a first actuator having a first housing and a first motor within the first housing. The first housing is mounted within the first depression.
Abstract:
Haptic feedback systems, vehicle seat assemblies, and vehicles are provided. The haptic feedback system includes a bottom seat member, a first motor, and a second motor. The bottom seat member includes a seat pan with a first side, a second side, a first bolster, and a second bolster. The first bolster is positioned on the first side of the seat pan and the second bolster is positioned on the second side of the seat pan, wherein the first bolster and the second bolster include a resilient material. The first motor supported by the resilient material of the first bolster and the second motor is supported by the resilient material of the second bolster.
Abstract:
A system for analyzing driver fitness to drive with consideration given to any of various conditions such as driver drowsiness, fatigue, and anxiety. The system includes a processing hardware unit, and a non-transitory computer-readable storage device comprising various modules to determine if the driver is impaired. The modules include an input interface module that, when executed by the processing unit, receives sensor data indicating a present driver health factor. A database module includes pre-established driver-profile data particular to a driver. And the modules include an activity module that, when executed by the processing unit, obtains the driver-profile data and the sensor data, and determines based on the present health factor and the pre-established driver-profile data, fitness of the driver to drive. The disclosure relates various embodiments to a computer-readable storage device, separately, and processes performed by the system and device.
Abstract:
A method of alerting a driver of a vehicle is provided. The method includes: receiving conditions data from one or more collision avoidance systems; determining an alert mode based on the conditions data, wherein the alert mode indicates at least two of alert conditions, vehicle conditions, and driving scenarios; and at least one of arbitrating, synchronizing, and combining at least two alert patterns associated with the at least two of the alert conditions, the vehicle conditions, and the driving scenarios and associated with one or more alert devices.
Abstract:
A vehicle seat assembly is provided. The assembly includes a bottom seat member and a haptic alert assembly. The haptic alert assembly includes a first actuator incorporated into the bottom seat member. The first actuator is configured to generate at least a first portion of a haptic alert.
Abstract:
A method of displaying a captured image on a display device of a driven vehicle. A scene exterior of the driven vehicle is captured by an at least one vision-based imaging and at least one sensing device. A time-to-collision is determined for each object detected. A comprehensive time-to-collision is determined for each object as a function of each of the determined time-to-collisions for each object. An image of the captured scene is generated by a processor. The image is dynamically expanded to include sensed objects in the image. Sensed objects are highlighted in the dynamically expanded image. The highlighted objects identifies objects proximate to the driven vehicle that are potential collisions to the driven vehicle. The dynamically expanded image with highlighted objects and associated collective time-to-collisions are displayed for each highlighted object in the display device that is determined as a potential collision.
Abstract:
A method of alerting a driver of a vehicle is provided. The method includes: receiving conditions data from one or more collision avoidance systems; selectively coordinating an alert pattern for at least one of a haptic alert device, a visual alert device, and an auditory alert device based on the conditions data; receiving interior vehicle conditions data indicating conditions within the vehicle; and selectively generating infotainment system signals based on the alert pattern and the interior vehicle conditions data.