Abstract: A road salt distribution system uses a plurality of agents cooperatively undertaking activities in order to apply salt (or other substances) for treating roadways. Each agent has a respective agent computing device. The computing devices are interconnected as nodes within a permissioned blockchain network. The agents include a salt-spreading agent and an administrative agent. A permissioned blockchain ledger is shared among the agent computing devices which comprises a series of transactions according to the cooperatively undertaken activities. Each transaction has a respective transaction type such as a routing transaction and a salt-deposited transaction.

Abstract: Upon detecting that a vehicle is parked, based on data from at least one of a sensor and a component in the vehicle, determine a location of the vehicle. Upon detecting that a vehicle operator has exited the vehicle, based on data from at least one of a sensor and a component in the vehicle, determine if the key fob is in the vehicle. Upon detecting that the key fob is in the vehicle, and based on the location of the vehicle, schedule a message to a user device.

Abstract: An apparatus in a host vehicle evaluates neighboring vehicles on a roadway for problems relating to braking performance. A plurality of remote sensors are configured to generate sensor data indicative of abnormalities of the brakes of the neighboring vehicles. A control circuit is configured to process the sensor data to identify a neighboring vehicle exhibiting an abnormality. A communication circuit wirelessly transmits a message to the neighboring vehicle conveying the abnormality. The host vehicle may include a driver assistance system responsive to the abnormality to initiate an evasive maneuver of the host vehicle in order to avoid a path of the neighboring vehicle which exhibits the abnormality.

Abstract: A dynamic sensor model is implemented by a vehicle to adapt sensor behavior to vehicle modifications and transformations. Responsive to impairment of a feature of the vehicle due to initial conditions for a target sensor being outside a range of current readings and further to receiving signals indicative of a upfit to the vehicle, an upfit zone of the vehicle is identified. The upfit zone corresponds to the target sensor. One or more reconfigurations of sensors of the vehicle within the upfit zone are performed to address the impairment of the feature.

Abstract: A ride-share system of other vehicle system employs a profile database having a plurality of user phobia profiles for potential customers. Each of the user phobia profiles identifies one or more respective phobia groups pertaining to a respective user, wherein each phobia group associates a plurality of driving-related phobias which share at least one trigger condition or at least one countermeasure. A vehicle controller is coupled to the profile database which determines a default itinerary for a trip to a destination specified by one of the users. The vehicle controller evaluates the default itinerary for potential interaction with a respective phobia group identified by the phobia profile of the one of the users. The vehicle controller implements an alternate itinerary that mitigates the potential interaction.

Abstract: Systems and methods for multilevel parking structure utilization and reporting are disclosed herein. An example method includes obtaining a layout that identifies ramps, turns, and level portions of a multilevel parking structure, determining vehicle data gathered as the vehicle operates within the multilevel parking structure, the vehicle data including steering input, compass headings, and distance traveled, and determining a current level of a vehicle within the multilevel parking structure by tracking the vehicle's use of the ramps, the turns, and the level portions in combination with the layout.

Abstract: A ride-share system of other vehicle system employs a profile database having a plurality of user phobia profiles for potential customers. Each of the user phobia profiles identifies one or more respective phobia groups pertaining to a respective user, wherein each phobia group associates a plurality of driving-related phobias which share at least one trigger condition or at least one countermeasure. A vehicle controller is coupled to the profile database which determines a default itinerary for a trip to a destination specified by one of the users. The vehicle controller evaluates the default itinerary for potential interaction with a respective phobia group identified by the phobia profile of the one of the users. The vehicle controller implements an alternate itinerary that mitigates the potential interaction.

Abstract: Systems and methods for multilevel parking structure utilization and reporting are disclosed herein. An example method includes obtaining a layout that identifies ramps, turns, and level portions of a multilevel parking structure, determining vehicle data gathered as the vehicle operates within the multilevel parking structure, the vehicle data including steering input, compass headings, and distance traveled, and determining a current level of a vehicle within the multilevel parking structure by tracking the vehicle's use of the ramps, the turns, and the level portions in combination with the layout.

Abstract: Biometric data profiles for users of a vehicle are managed according to an enrollment mode and a maintenance mode. The enrollment mode includes 1) authenticating a respective authorized user, 2) transferring a respective biometric profile to an encrypted biometric memory, 3) specifying a sunset time for automatic deletion of the respective biometric profile, 4) establishing an activity window, and 5) establishing a deferral period. The maintenance mode includes 1) deleting a respective biometric profile upon occurrence of the respective specified sunset time, 2) detecting vehicle access in response to a stored biometric profile during a respective activity window of the respective authorized user, and 3) automatically extending the respective sunset time according to the respective deferral period if the detected vehicle access during the respective activity window meets a respective threshold.

Abstract: A method of operating a vehicle may include detecting that a vehicle user is exiting the vehicle, that a user is approaching the vehicle or that the user remote starts the vehicle. Upon the one of these events occurring, automatically conducting a camera lens clearness test. If the test detects an unclear camera lens, notifying the user while outside of the vehicle that the camera lens needs cleaning.

Abstract: Methods and apparatus for automotive vehicles respond to earthquake warnings to provide occupant awareness of potential hazards while taking autonomous actions such as slowing the vehicle, navigating to a safe location, and providing safety advice. Data gathered by the vehicle can be sent wirelessly to a remote center for coordinating emergency response using the data. The vehicle preferably comprises a powertrain, a plurality of vehicle accessory systems, and an emergency management controller. The controller is adapted to receive an earthquake warning message. The controller responds to the warning message by providing a power conservation command to at least one accessory system to reduce power consumption by at least one respective noncritical accessory function. In addition, it evaluates a vehicle mobility status and automatically launches a corresponding safety measure.

Abstract: A shield housing mounts a yaw sensor onto a trailer structural element. A shield body defines a sensor cavity within a closed bottom, an open face, and a perimeter wall with a side opening. A mounting post extends from the closed bottom into the sensor cavity and is adapted to affix the sensor at a predetermined orientation in the shield body. A pair of side wings extend laterally from the perimeter wall. Each side wing has a respective groove adapted to retain a respective strap loop tensioned over the groove and the structural element. In one preferred embodiment, the perimeter wall may have a base edge, and the side wings may each have a base surface opposite the grooves. The base edge and the base surfaces may have a contoured profile configured to orient the housing in a predetermined direction on the structural element.

Abstract: Methods and apparatus for automotive vehicles respond to earthquake warnings to provide occupant awareness of potential hazards while taking autonomous actions such as slowing the vehicle, navigating to a safe location, and providing safety advice. Data gathered by the vehicle can be sent wirelessly to a remote center for coordinating emergency response using the data. The vehicle preferably comprises a powertrain, a plurality of vehicle accessory systems, and an emergency management controller. The controller is adapted to receive an earthquake warning message. The controller responds to the warning message by providing a power conservation command to at least one accessory system to reduce power consumption by at least one respective noncritical accessory function. In addition, it evaluates a vehicle mobility status and automatically launches a corresponding safety measure.

Abstract: A distributed system detects and tracks wildfires using a fleet of automobiles as remote sensing systems. An individual vehicles includes a plurality of sensing subsystems each collecting and evaluating a respective environmental parameter for various autonomous functions such as collision avoidance, lane-keeping, and climate control. Each sensing subsystem analyzes a respective environmental parameter to detect a respective fire-related trigger. A fire response module in the vehicle responds to a respective fire-related trigger from one of the sensing subsystems by fusing data from a plurality of the sensing subsystems. The fire response module uses the fused data to detect whether there is a fire-related event. A wireless communication module communicates with a remote fire response center, and transmits the fused data to the fire response center when a fire-related event is detected. The response center sends notices and detour information for a confirmed fire incident to the wireless communication module.

Abstract: A vapor blocking valve for a fuel vapor recovery system is mounted with a two-piece bracket having a base member and a clip member. The base member fixedly mounts on a vehicle structure. At least two bendable wings extend from the base member which are bendable toward one another to a release position. The clip member has an aperture receiving the wings and a clamp receiving the vapor blocking valve. The wings and aperture have a matching profile for selectably locking the clip member at one of a plurality of rotational orientations when the wings are at the rest position. The clip member is movable between rotational orientations with the wings bent to the release position. Consequently, re-orientation of the vapor blocking valve can be accommodated without any changes to the mounting bracket or the structural component to which the bracket attaches.

Abstract: A vapor blocking valve for a fuel vapor recovery system is mounted with a two-piece bracket having a base member and a clip member. The base member fixedly mounts on a vehicle structure. At least two bendable wings extend from the base member which are bendable toward one another to a release position. The clip member has an aperture receiving the wings and a clamp receiving the vapor blocking valve. The wings and aperture have a matching profile for selectably locking the clip member at one of a plurality of rotational orientations when the wings are at the rest position. The clip member is movable between rotational orientations with the wings bent to the release position. Consequently, re-orientation of the vapor blocking valve can be accommodated without any changes to the mounting bracket or the structural component to which the bracket attaches.

Abstract: A vehicular crash sensing system includes a bumper cap for contacting a bumper. A chamber fits into a side rail attached to the bumper, the chamber being sealed by the bumper cap. A stop element limits movement of the chamber into the side rail. A pressure sensor detects an increased chamber air pressure during crushing of the chamber resulting from movement of the bumper with respect to the stop element.

Abstract: A vehicular crash sensing system includes a bumper cap for contacting a bumper. A chamber fits into a side rail attached to the bumper, the chamber being sealed by the bumper cap. A stop element limits movement of the chamber into the side rail. A pressure sensor detects an increased chamber air pressure during crushing of the chamber resulting from movement of the bumper with respect to the stop element.

Abstract: A vehicular crash sensing system includes a bumper cap for contacting a bumper. A chamber fits into a side rail attached to the bumper, the chamber being sealed by the bumper cap. A stop element limits movement of the chamber into the side rail. A pressure sensor detects an increased chamber air pressure during crushing of the chamber resulting from movement of the bumper with respect to the stop element.

Abstract: A vehicular crash sensing system is provided wherein a bumper cap contacts a bumper. A chamber is at least partially fit into a side rail attached to the bumper, wherein the chamber is sealed by the bumper cap. The bumper cap and chamber together enclose a space containing a volume of air. A stop element limits movement of the chamber into the side rail. A pressure sensor detects an increased chamber air pressure during crushing of the chamber resulting from movement of the bumper with respect to the stop element.