Abstract:
A system is provided that includes a wireless communication device (or end device), a vehicle having a central module, and a key provisioning server. The key provisioning server is communicatively coupled to the wireless communication device and the central module via wireless connections. The central module can establish a wireless connection with the wireless communication device to initiate a current communication session. When the wireless connection is established with the central module, the wireless communication device communicates a request message to request temporary security information (e.g., public key and/or a digital certificate). The key provisioning server can then provide, in response to the request message, the temporary security information to the wireless communication device and/or the central module. The temporary security information can then be used to encrypt communications between the wireless communication device and the central module.
Abstract:
A passive entry passive start (PEPS) system is provided for performing at least one PEPS function with respect to a vehicle as an end device (e.g., smart phone or key fob, etc.) approaches the vehicle and comes within range for authorization. The vehicle includes a plurality of sensors and a central module. The central module is communicatively coupled to the end device and to the sensors via short-range wireless connections. The central module can determine, based on signal strength information provided from the sensors or the end device, whether the end device is within range for authorization. When the end device is determined to be within range for authorization, the central module can control performance of at least one PEPS function at the vehicle.
Abstract:
Mobile device-activated vehicle functions are implemented by authenticating a vehicle with a device via wireless signals transmitted between a low frequency antenna of the device and a low frequency antenna of the vehicle when the vehicle is in communicative range of the device. The mobile device-activated vehicle functions are further implemented by receiving, via computer processor embedded in the device, a selection from one of a plurality of input components embedded in the device, the selection associated with a vehicle function, and transmitting a request to implement the vehicle function via the low frequency antenna coupled to the computer processor and the low frequency antenna of the vehicle.
Abstract:
A system and method for determining driver assignments based on fleet trips history logs is presented. The system and method include receiving, at a server or online platform, a set of fleet driver requirements from a fleet owner. The server receives fleet trip data from a vehicle with an integrated communication device where a weighted trip score for a driver based on a particular fleet owner is determined. The server also ranks one or more drivers, based on the weighted trip score, that best matches the fleet driver requirements. The weighted trip score is determined based on the fleet trip data received from the integrated communication device in the vehicle where the fleet trip data includes at least a start trip information, a trip log, an event trigger, and an end of trip data.
Abstract:
A system for context-based adaptive virtual experience control in a vehicle is provided. The system includes an output device configured for providing a sensory output to a user of the vehicle and a computerized virtual experience control module configured for controlling the output device based upon a virtual experience mode. The system further includes a computerized context-based adaptive control module configured for monitoring contextual data related to one of the user of the vehicle or operation of the vehicle, monitoring feedback from the user related to one of favor or disfavor related to the virtual experience mode, and utilizing the contextual data and the feedback from the user to selectively, automatically command activation of the virtual experience mode.
Abstract:
An application is launched in response to identifying a specific user in the vehicle. Upon launching the application, a historical comfort setting profile is automatically downloaded for the user. The historical profile includes individual comfort setting records. The historical profile is updated with comfort setting record(s) corresponding to each instance of an automatic climate control setting, a manual climate control setting, or an alternate climate control setting while the specific user is in the vehicle. An in-vehicle setting is dynamically predicted within respective predetermined time increments while the specific user is in the vehicle or in response to a user request. The predicted in-vehicle setting is dependent upon geographic location data points and a set of climate control related settings retrieved from the individual comfort setting records. A most recently predicted in-vehicle setting is caused to be displayed on a vehicle display while the specific user is in the vehicle.
Abstract:
Implementations of the present invention contemplate utilizing the communicative connections between a telematics service provider (TSP), a communication device, and a telematics unit in a vehicle to manage personalized information of a subscriber. Implementations contemplate the removal of personalized information of a subscriber from data stores located at a vehicle, the uploading of personalized information of a subscriber to a database of an operations control center of the TSP, and the downloading of personalized information of a subscriber by a telematics unit of a vehicle from an operations control center of the TSP. Implementations enable personalized information of a subscriber to be removed from a vehicle remotely in order to prevent a user of the vehicle from accessing personalized information of the subscriber. Furthermore, implementations enable personalized information of a subscriber to be accessed by a vehicle in order to provide a subscriber with a customized experience in the vehicle.
Abstract:
Automotive vehicle driving aid includes a computer program with a training module having instructions for providing audio/visual feedback during training route (TR) execution, and dynamically adjusting the TR to enable practice of a maneuver and avoidance of another maneuver. The program includes a driver aid module, practice module and/or test module. Driver aid module includes instructions for providing feedback during driver aid route (DAR) execution, dynamically adjusting the DAR to enable practice of a maneuver and avoidance of another maneuver, and providing a notification upon recognizing an object outside a vehicle during DAR execution. Practice module includes instructions for receiving a learning preference input and generating a practice route including the learning preference. Test module includes instructions for disabling feedback systems, assessing a driving maneuver during a test route (TR), and upon completion of TR, providing a driving report. Audio system provides audio feedback, and electronic display provides visual feedback.
Abstract:
Automotive vehicle driving aid includes a computer program with a training module having instructions for providing audio/visual feedback during training route (TR) execution, and dynamically adjusting the TR to enable practice of a maneuver and avoidance of another maneuver. The program includes a driver aid module, practice module and/or test module. Driver aid module includes instructions for providing feedback during driver aid route (DAR) execution, dynamically adjusting the DAR to enable practice of a maneuver and avoidance of another maneuver, and providing a notification upon recognizing an object outside a vehicle during DAR execution. Practice module includes instructions for receiving a learning preference input and generating a practice route including the learning preference. Test module includes instructions for disabling feedback systems, assessing a driving maneuver during a test route (TR), and upon completion of TR, providing a driving report. Audio system provides audio feedback, and electronic display provides visual feedback.
Abstract:
In-vehicle functions are implemented using a location device disposed in a vehicle, a central controller of the vehicle, and logic executable by a computer processor of the central controller. The location device includes a wireless communications interface. The logic receives a unique identifier of the location device. The unique identifier identifies a location in the vehicle in which the location device is disposed. The logic also validates the location device and an end user device in response to activation of the location device by the end user device via the communications interface. The logic further receives a request from the end user device to implement end user-configured settings for an electronic component that services the location in the vehicle corresponding to the unique identifier and activates the electronic component based on the end user-configured settings.