Abstract: A method of managing short-range wireless links between a primary wireless device and a plurality of secondary wireless devices includes initiating a short-range wireless link between the primary wireless device and a secondary wireless device configured to communicate using a traditional Wi-Fi protocol; providing the short-range wireless link between the primary wireless device and the secondary wireless device using a Wi-Fi direct protocol, wherein the primary wireless device acts as a group owner and the secondary wireless device acts as a group member; detecting the presence of an additional secondary wireless device, acting as a server, using the primary wireless device; ending use of the Wi-Fi direct protocol over the short-range wireless link between the primary wireless device and the secondary wireless device; and beginning use of the traditional Wi-Fi protocol over the short-range wireless link between the primary wireless device and the secondary wireless device.

Abstract: A method for initiating a projection session between one of a plurality devices and an infotainment system of a motor vehicle includes establishing communications with each of the plurality of mobile devices. Each of the plurality of devices is identified against a predetermined priority, such that each of the plurality of devices identified with a predetermined priority is assigned the predetermined priority. Each of the plurality of devices is prioritized from the highest to lowest based on the predetermined priority. A user configuration of the one of the plurality of devices with the highest priority is red. A connection between the one of the plurality of devices with the highest priority and the infotainment system of the motor vehicle is attempted. A communication session between the one of the plurality of devices with the highest priority and the infotainment system of the motor vehicle is then established.

Abstract: A method and system for establishing secure short range wireless communication between devices in a vehicle. The method involves obtaining a vehicle identifier associated with the vehicle and a module identifier associated with a vehicle module. Then, the method determines a secure pin number for the vehicle module and a similar pin for a vehicle telematics unit. Once the secure pin number is determined at both devices then the devices can communicate via short range wireless communication in a secure manner using the secure pin number.

Abstract: A communication system and various methods using that communication system, including a method of providing mobile device media content in a vehicle. One method includes the steps of: identifying one or more mobile devices at the vehicle using vehicle electronics that include a vehicle multi-tainment unit (VMU); determining whether any of the one or more mobile devices are connected via a non-legacy short-range wireless communication (SRWC) link; when the VMU determines a connected mobile device from among the one or more mobile devices, then indexing at the VMU media content on the connected mobile device; receiving a request from a vehicle user for media content; and providing the requested media content via vehicle electronics.

Abstract: A system and method for supporting mobile device connectivity with a vehicle. A mobile device is provided that includes at least one connectivity option for connecting to a communications channel of the vehicle. A flexible connectivity module that includes a controller is programmed to determine if there is at least one matching communication channel between the mobile device and the vehicle such that the mobile device and the vehicle may be in communication with each other. The controller selects the optimal connectivity option if there is more than one of the matching communication channels available and monitors the selected connectivity option and changes or modifies the selected connectivity option if a predetermined interference threshold is achieved.

Abstract: A system and method for using data that is external to a vehicle in vehicular applications. The system and method include determining data that is external to the vehicle is available for use, comparing the external data to data that is available from a vehicle system, and determining whether the external data has a higher utility function compared to data that is available from a vehicle system. The system and method further include using the external data to enhance a vehicular application if the external data has a higher utility function.

Abstract: Methods and systems for compensating for delay or jitter are provided. The methods, for example, may include, but are not limited to receiving, by a processor, one or more data streams from one or more electronic devices, transmitting, by the processor, the one or more data streams to one or more displays, determining, by the processor, delay and jitter in the one or more data streams transmitted by the processor, and requesting, by the processor, at least one of the one or more electronic devices to adjust a respective data stream via a communication system.

Abstract: A method of controlling media content between a portable device and a head control unit. A first link is initiated for transmitting control signals between a control client and a control server. A second link is initiated for transmitting media content between a data server and a data client. The first link has a lower traffic volume capacity than the second link and a shorter latency for the control signals than for the media content signal over the second link. The control client generates control signals identifying a user's request and transmits the control signals to the control server using the first link. The control server provides instructions to the data server for executing the user request. The retrieved media data is transmitted from the data server to the data client using the second link. The media data is output to the user over the media output device.

Abstract: A mobile device screen projection system for an in-vehicle display is provided. The system receives mobile device content from a mobile device, receives context data from a plurality of information sources associated with at least one of the vehicle and the mobile device, determines an integrated context based on the context data, and selectively renders the mobile device content on the in-vehicle display based on the integrated context.

Abstract: A mobile device screen projection system for an in-vehicle display is provided. The system receives mobile device content from a mobile device, receives context data from a plurality of information sources associated with at least one of the vehicle and the mobile device, determines an integrated context based on the context data, and selectively renders the mobile device content on the in-vehicle display based on the integrated context.

Abstract: Methods and systems for compensating for delay or jitter are provided. The methods, for example, may include, but are not limited to receiving, by a processor, one or more data streams from one or more electronic devices, transmitting, by the processor, the one or more data streams to one or more displays, determining, by the processor, delay and jitter in the one or more data streams transmitted by the processor, and requesting, by the processor, at least one of the one or more electronic devices to adjust a respective data stream via a communication system.

Abstract: A method of managing short-range wireless links between a primary wireless device and a plurality of secondary wireless devices includes initiating a short-range wireless link between the primary wireless device and a secondary wireless device configured to communicate using a traditional Wi-Fi protocol; providing the short-range wireless link between the primary wireless device and the secondary wireless device using a Wi-Fi direct protocol, wherein the primary wireless device acts as a group owner and the secondary wireless device acts as a group member; detecting the presence of an additional secondary wireless device, acting as a server, using the primary wireless device; ending use of the Wi-Fi direct protocol over the short-range wireless link between the primary wireless device and the secondary wireless device; beginning use of the traditional Wi-Fi protocol over the short-range wireless link between the primary wireless device and the secondary wireless device; and providing another short-range wirel

Abstract: A system and a method for establishing short range wireless communication between two vehicle modules. The system determines the availability of a first vehicle module and a second vehicle module to establish a short range wireless communication connection. The determination may be based upon whether the first vehicle module is storing pairing data. The system validates the pairing data at the second vehicle module using a wired connection. If the pairing data is validated, the first and second vehicle modules may establish a wireless connection using at least a portion of the pairing data. When the wireless connection ends, the system may re-determine the availability and revalidate any pairing data via the wired connection before establishing a wireless connection.

Abstract: A method for establishing secure wireless communications between a mobile device and a vehicle, where a user is not required to enter a password, but instead the telematics system is used to bootstrap the trust between the mobile device and the vehicle. The user initiates the process by pressing a button on the mobile device to request pairing. The vehicle uses its secure OnStar cellular communication link to verify the mobile device with the OnStar server, which generates and sends a session key to the vehicle via the vehicle-OnStar cellular connection, and also sends the session key to the mobile device via the device's own cellular connection. The session key serves as a shared secret, such that the vehicle can issue a secrecy challenge to the mobile device. When the mobile device responds appropriately, a trusted wireless communications link can be established between the mobile device and the vehicle.

Abstract: An automobile communication system includes an outgoing communication controller that receives a communication from a first input source in a first operating mode and a second input source in a second operating mode. The system also includes an input selector that selects the first input source in the first mode and the second input source in the second mode and a mode selector operable by an automobile passenger that determines the operating mode. The system also includes an incoming communication controller that receives an incoming communication from a cellular phone and an output selector that provides an output of the incoming communication controller to a first output device in the first operating mode and to the second output device in the second mode.

Abstract: A method of controlling media content between a portable device and a head control unit. A first link is initiated for transmitting control signals between a control client and a control server. A second link is initiated for transmitting media content between a data server and a data client. The first link has a lower traffic volume capacity than the second link and a shorter latency for the control signals than for the media content signal over the second link. The control client generates control signals identifying a user's request and transmits the control signals to the control server using the first link. The control server provides instructions to the data server for executing the user request. The retrieved media data is transmitted from the data server to the data client using the second link. The media data is output to the user over the media output device.

Abstract: A method for determining which of a plurality of data connectivity pipes will be used to transmit data for one or more applications operating on a vehicle. The method identifies which of the applications are active at a particular point in time and identifies a number of available configurations based on the number of applications that are active and the number of the data pipes that are available to transmit the data for the application. The method identifies a plurality of performance metrics for each configuration and determines an optimal performance value for each performance metric from all of the configurations. The method then determines an overall utility function for each configuration that is based on its performance metrics and the optimal performance value and selects a data pipe for each application that is active based on a maximum overall utility function from each application's available overall utility functions.

Abstract: A device-interoperability notification method and system are disclosed herein. The method involves establishing a connection between an electronic device and a telematics unit operatively disposed in a vehicle. Via the telematics unit, data obtained from the device is transmitted to a data aggregator at a call center. From the data, the data aggregator recognizes that an interoperability issue exists between the device and the vehicle within which the device is disposed. Via a communications module at the call center, a message is sent to the telematics unit or the electronic device, and this message includes information pertaining to an interoperability of the electronic device with the vehicle. The system includes elements to perform the steps of the method above. Also disclosed herein is a method for assessing the interoperability between an electronic device and a vehicle.

Abstract: A method for establishing secure wireless communications between a mobile device and a vehicle, where a user is not required to enter a password, but instead the telematics system is used to bootstrap the trust between the mobile device and the vehicle. The user initiates the process by pressing a button on the mobile device to request pairing. The vehicle uses its secure OnStar cellular communication link to verify the mobile device with the OnStar server, which generates and sends a session key to the vehicle via the vehicle-OnStar cellular connection, and also sends the session key to the mobile device via the device's own cellular connection. The session key serves as a shared secret, such that the vehicle can issue a secrecy challenge to the mobile device. When the mobile device responds appropriately, a trusted wireless communications link can be established between the mobile device and the vehicle.

Abstract: A method for determining which of a plurality of data connectivity pipes will be used to transmit data for one or more applications operating on a vehicle. The method identifies which of the applications are active at a particular point in time and identifies a number of available configurations based on the number of applications that are active and the number of the data pipes that are available to transmit the data for the application. The method identifies a plurality of performance metrics for each configuration and determines an optimal performance value for each performance metric from all of the configurations. The method then determines an overall utility function for each configuration that is based on its performance metrics and the optimal performance value and selects a data pipe for each application that is active based on a maximum overall utility function from each application's available overall utility functions.