Abstract: A portable system, for use in projecting proprietary host-data-based output utilizing a dual-layer proprietary-data arrangement including the portable system, a remote proprietary-data server, and a host device. The system having a first-layer arrangement component communicating with the server by way of a long-range channel, and a second-layer arrangement component communicating with the host device by wired or a short-range communication. The system also includes a portable-system application that generates, based on proprietary host data, proprietary-host-data-based app output. The first-layer includes a remote-server-communications client sub-module that receives the proprietary host data from the server. The application generates, based on the proprietary host data, proprietary host data-based app output data, for use in presentation via the host device.

Abstract: A vehicle includes a vision system configured to output a signal indicative of exterior conditions in a vicinity of the vehicle and a temperature sensor configured to output a signal indicative of an interior temperature of the vehicle. The vehicle also includes a plurality of articulable openings arranged to allow fluid flow communication between an interior and an exterior of the vehicle. The vehicle further includes a controller programmed to adjust at least one articulable opening toward an open position in response to the interior temperature exceeding a temperature threshold. The controller is also programmed to adjust at least one articulable opening toward a closed position in response to detection via the vision system of a threat condition in the vicinity of the vehicle.

Abstract: Technical solutions are described for vehicle collision prevention for a vehicle when the vehicle is in a parked condition. An example method includes performing a stationary safety monitoring when the vehicle is in parked condition. The stationary safety monitoring includes detecting presence of a moving object within a predetermined region from the vehicle. Further, the method includes, in response to detecting the moving object in the predetermined region initiating a notification for the moving object to prevent collision with the vehicle.

Abstract: In one aspect, the technology includes a portable system, for providing add-on resources to a host device, such as a vehicle host device. The portable system includes a portable-system resource, which in various embodiments is at least partially a part of a portable-system data storage. The data storage includes at least one companion application that, when executed, provides, based on operation of the portable-system resource, host-device output for use at the host device, wherein the host-device output is output that the host device could not produce on its own or is supplemental to output that the host device can produce on its own. Example portable-system resources include a central-processing unit, a graphics processor, an application shop, an app-refresh program, security or hardware accelerators, and a speech recognition or three-dimensional rendering program. The technology in various embodiments also includes the host device described herein.

Abstract: A portable system, for use in projecting proprietary host-data-based output to a host device using a dual-layer proprietary-data-provision arrangement including the host device and portable system. A storage component includes one or more first-layer components, of the dual-layer proprietary-data-provision arrangement, that, when executed by a hardware-based processing unit, communicates with the host device by a first wired communication channel or a first short-range wireless communication channel to receive the proprietary host data from the host device. The storage also includes a portable-system application that, when executed, generates, based on the proprietary host data, proprietary host-data-based app output.

Abstract: A system to exhibit vehicle information is presented herein. The system includes a data center, vehicle, and sign. The data center includes a memory, long-range transceiver, and server. The memory is configured to have one or more vehicle share records. The long-range transceiver is configured to transmit and receive one or more data transmissions over a long-range communication channel. The server is configured to communicably couple with the memory and long-range transceiver. The server is also configured to operate the long-range transceiver to transmit the vehicle-share records as data transmissions over the long-range communication channel.

Abstract: A system and method is taught for collaborative vehicle to all (V2X) communications to improve autonomous driving vehicle performance in a heterogeneous capability environment by sharing capabilities among different vehicles. In particular, the system and method are operative to facilitate path planning contention resolution among a plurality of road uses within a road segment by facilitating the election and transition of a segment leader to arbitrate conflicts.

Abstract: A plug-in communication system, for implementation with a vehicle. The system in one aspect includes an onboard diagnostics port-expansion device, configured for mounting in the vehicle to, or adjacent, an onboard diagnostics port, and an onboard diagnostics port expansion connection line extending from the onboard diagnostics port-expansion device, the connection line being configured to connect the port-expansion device to one or more vehicle components. In another aspect, the system includes an inline remote-services terminal configured for wired connection inline, via a plurality of connection lines, to a remote-services module of the vehicle, a first connection line, of the plurality of connection lines, configured to connect to the inline remote-services terminal and to the remote-services module, and a second connection line, of the plurality of connection lines, configured to connect to the inline remote-services terminal and to the remote-services module.

Abstract: Systems and method are provided for participative map anomaly detection and correction. In one embodiment, a processor-implemented method for map anomaly detection is provided. The method includes receiving, by a processor in a vehicle, pre-planned trajectory data from a navigation module in the vehicle, retrieving, by the processor, sensor data from one or more vehicle sensing systems, analyzing, by the processor, the sensor data and the pre-planned trajectory data, identifying, by the processor, an anomaly from the analysis, and transmitting information regarding the anomaly to a central repository external to the vehicle wherein the central repository is configured to analyze the information regarding the anomaly to determine if a navigation map attribute is incorrect.

Abstract: A system and method is taught for collaborative vehicle to all (V2X) communications to improve autonomous driving vehicle performance in a heterogeneous capability environment by sharing capabilities among different vehicles. In particular, the system and method are operative to facilitate path planning contention resolution among a plurality of road uses within a road segment by facilitating the election and transition of a segment leader to arbitrate conflicts.

Abstract: Disclosed are vehicle communications networks for adapting user information using crowd-sensed contextual data, computer-executable instructions for provisioning such content/information, and vehicles equipped with a telematics system for adapting driver information using contextual data from vehicle participatory sensing systems. A disclosed method for provisioning information to occupants of a motor vehicle includes determining trip characteristics, including vehicle and driver data, for a current trip of the vehicle, and determining trip characteristics for previous trips that correspond to the current trip. The vehicle's communications system receives, over a distributed computer network from a vehicle participatory sensing system aggregating data from participative vehicles, operational data for the current trip as sensed by the participative vehicles.

Abstract: A system and method is taught for collaborative vehicle to all (V2X) communications to improve autonomous driving vehicle performance in a heterogeneous capability environment by sharing capabilities among different vehicles. In particular, the system and method are operative to receive an image from a proximate vehicle and to augment a display within the host vehicle by providing a view of objects with an area of obstructed view.

Abstract: Systems and method are provided for implementing selective crowd sourcing. In one embodiment, a processor-implemented method for obtaining data from vehicles includes calculating a greedy parameter value for each of a plurality of vehicles in a geographical area; selecting no more than a predetermined number of the plurality of vehicles having a greedy parameter value in a greedy parameter threshold range; instructing the selected vehicles to transmit data while in the geographical area; and receiving the data from the selected vehicles. In another embodiment, a vehicle including a crowd sourcing selection module is provided. The crowd sourcing selection module is configured to retrieve consensus information from a central repository; calculate greedy parameter information regarding the vehicle using the consensus information; and determine whether to transmit an event observation to the central repository based on the greedy parameter information.

Abstract: A vehicle includes at least one image capture device and a user display configured to display images receive from the at least one image capture device. The vehicle also includes a controller programmed to generate a user prompt to set a home vehicle position in response the vehicle entering a first parked state. The controller is also programmed to store at least one reference image indicative of an area in a vicinity of the vehicle corresponding to the home vehicle position. The controller is further programmed to collect a current image corresponding to a current vehicle position in response to a subsequent approach toward the vicinity, and compare the current image to the reference image. The controller is further programmed to generate a user display depicting the vicinity, the current vehicle position, and the home vehicle position.

Abstract: A portable communication device, for implementation with a host vehicle of transportation having an on-board diagnostics port and a limited-access head-unit display. The device includes an on-board diagnostics connector sized and shaped to connect to the on-board diagnostics port of the host vehicle, a hardware-based processing unit in communication with the on-board diagnostics; and a non-transitory storage device in communication with the processing unit, the storage device. The storage includes a media-options presentation module that, when executed by the processing unit: sends, by way of the on-board diagnostics connector and port, media-options data to the host vehicle for presenting user media options by way of the limited-access head-unit display; and receives user-selection data responding to the user media options.

Abstract: A method for generating and transmitting a reminder message includes obtaining a unique user profile. The user profile includes a user identification (ID) indicative of a unique user, an object ID indicative of a unique object, and a device ID indicative of a unique mobile device. The processor is configured to predict a spatial relationship between the user, the object, and the mobile device. The prediction is based, in part, on the user ID, the object ID, and the device ID, where the prediction includes a geographic location for the user, the object, and/or the mobile device. The processor compares a location of at least two of the user, the object and the mobile device with the prediction of the user's spatial relationship with the object and the mobile device. The processor transmits a reminder message when the prediction of the spatial relationship exceeds a predetermined threshold.

Abstract: Methods and systems are provided for receiving local data via a vehicle sensing module of a vehicle control system, receiving remote data via a cloud interface unit of the vehicle control system from a cloud server, and processing the local data and the remote data via a processing unit of the vehicle control system. Based on the processing of the local data and the remote data, at least one vehicle feature is controlled. The local data and the remote data are associated with processing priority levels. The processing unit varies a frequency of processing based on the processing priority levels. Further provided is a cloud server for transmitting remote data to a crowd of vehicles. The cloud server comprises a first module configured to allocate vehicles to a plurality of groups based at least on location data received from the vehicles. A second module of the cloud server is configured to determine different remote data for each group.

Abstract: A system and method of setting a clock at a vehicle, including: operating a vehicle clock installed in a vehicle; receiving an external time signal via wireless communications, wherein the external time signal is a wireless communications signal that includes a time value; determining whether a predetermined amount of time has passed since a most-recent clock update; when it is determined that a predetermined amount of time has passed since the most-recent vehicle clock update, then carrying out the following steps: (i) calculating a measured drift and a drift limit; (ii) determining whether the measured drift is less than the drift limit; and (iii) when it is determined that the measured drift is less than the drift limit, then setting the vehicle clock to the time value included in the received external time signal.

Abstract: A vehicle includes a vision system including at least one external image capture device to transmit image data and a user interface display to present image data received from the at least one image capture device. The vehicle also includes a controller programmed to increase a brightness of an exterior lamp in response to sensing an ambient light level less than an ambient light threshold. The controller is also programmed to modify at least one visual attribute of image data presented at the user interface display in response to an image light level less than a first image light threshold.

Abstract: A system and method of providing one or more vehicle functions at a vehicle, the method including: when the vehicle is in a powered off state, periodically scanning for short-range wireless communication (SRWC) devices using a SRWC chipset and, as a result of the scanning, receiving a connection request from a mobile device; in response thereto, establishing a SRWC connection with the mobile device using the SRWC chipset; after establishing the SRWC connection, authorizing the mobile device to access one or more vehicle functions; then, performing an initialization suite of operations, wherein the initialization suite of operations includes initializing at least one vehicle system module, and wherein the initialization suite of operations is performed in response to a predictive user determination indicative of an imminent user interaction with the vehicle; and executing the initialization suite of operations at the vehicle.