Abstract: Systems and methods are provided for enabling an over-the-air update to a plurality of vehicles. A system and method include transmitting a wakeup signal over a communication network to the vehicles that are in a listen state. The update is transmitted over the Wi-Fi network to the vehicles. The transmitting of the update over the Wi-Fi network includes using a transmission scheme to overcome asynchronous communication wakeup of the vehicles.

Abstract: In an example of a method for enabling after-hours vehicle pick up, a server recognizes that a service payment request is outstanding for a serviced vehicle. In response to the recognizing, the server transmits an ignition block command to the serviced vehicle. The ignition block command triggers a powertrain control module of the serviced vehicle to enter a disengaged state that electrically prohibits the powertrain control module from providing tractive power to a vehicle drive wheel. At the server, a notification of a payment acceptance is received from an infotainment unit of the serviced vehicle or a mobile communications device associated with the serviced vehicle. In response to receiving the notification, the server transmits an ignition enabling command triggering the powertrain control module to enter an engaged state that electrically enables the powertrain control module to provide tractive power to the vehicle drive wheel.

Abstract: A system and method for carrying out wireless communications at a vehicle, wherein the vehicle comprises a wireless communications device and a plurality of vehicle system modules, wherein the method is carried out by the wireless communications device. The method can include the steps of: receiving an anticipatory vehicle ignition termination signal; setting the wireless communications device to operate in a station mode; detecting the presence of a wireless access point using the wireless communications device in the station mode; providing an indication to at least one of the vehicle system modules of the presence of the wireless access point; establishing a wireless connection between the wireless communications device and the wireless access point; and communicating data between the wireless access point and one or more vehicle system modules via the established wireless connection using the wireless communications device.

Abstract: A software update system for a vehicle is disclosed, as well as a method of determining whether to install a software update at an electronic control unit (ECU) in the vehicle. The method includes the steps of: receiving at the ECU a first signal from a first vehicle system module (VSM) in the vehicle; receiving at the ECU a second signal from a second VSM in the vehicle, wherein the first and second signals each provide an indication that the vehicle is in a stationary state; based on the first and second signals, assessing at the ECU that the vehicle is in the stationary state, wherein the assessment is in accordance with a first predetermined confidence level; and in response to the assessment, authorizing at the ECU an installation of the software update on ECU memory.

Abstract: A method and a system for providing control of a vehicle telematics unit using a mobile device. The method carried out by the system includes the steps of: determining a mobile device is configured to control a vehicle telematics unit; receiving at a call center a vehicle telematics unit (VTU) command from the mobile device instructing the telematics unit to provide vehicle data using short range wireless communication (SRWC); sending the VTU command from the call center to the telematics unit; and transmitting via SRWC the vehicle data.

Abstract: An aftermarket device is disclosed herein. In an embodiment, the aftermarket device includes, but is not limited to, a housing that is configured to be mounted to an internal surface of a vehicle. The aftermarket device further includes, but is not limited to a processor that is mounted within the housing. The aftermarket device still further includes, but is not limited to, a mounting sensor that is associated with the housing and that is communicatively coupled with the processor. The mounting sensor is configured to detect a mounting status of the housing and to provide a signal to the processor. The signal contains information indicative of the mounting status of the housing. The processor is configured to determine that the housing is improperly mounted to the internal surface of the vehicle based on the mounting status.

Abstract: A method and a system for providing control of a vehicle telematics unit using a mobile device. The method carried out by the system includes the steps of: determining a mobile device is configured to control a vehicle telematics unit; receiving at a call center a vehicle telematics unit (VTU) command from the mobile device instructing the telematics unit to provide vehicle data using short range wireless communication (SRWC); sending the VTU command from the call center to the telematics unit; and transmitting via SRWC the vehicle data.

Abstract: In an example of a method for enabling after-hours vehicle pick up, a server recognizes that a service payment request is outstanding for a serviced vehicle. In response to the recognizing, the server transmits an ignition block command to the serviced vehicle. The ignition block command triggers a powertrain control module of the serviced vehicle to enter a disengaged state that electrically prohibits the powertrain control module from providing tractive power to a vehicle drive wheel. At the server, a notification of a payment acceptance is received from an infotainment unit of the serviced vehicle or a mobile communications device associated with the serviced vehicle. In response to receiving the notification, the server transmits an ignition enabling command triggering the powertrain control module to enter an engaged state that electrically enables the powertrain control module to provide tractive power to the vehicle drive wheel.

Abstract: At a server, a notification that a subscriber vehicle has an appointment with a dealership is received. A geo-fence is set up around the dealership. At the server, it is recognized that the subscriber vehicle has entered the geo-fence. Subscriber vehicle identifying data is received at the server, and in-vehicle infotainment capabilities of the subscriber vehicle are identified at the server by interrogation of a database in connection with the server. From the server, a message is transmitted to the subscriber vehicle that is tailored to the in-vehicle infotainment capabilities.

Abstract: A collision sensor, a collision sensing system, and a method of mounting a collision sensor to a vehicle are disclosed herein. An embodiment of the collision sensor includes, but is not limited to, a processor and a three-axis accelerometer that is communicatively coupled with the processor. The three-axis accelerometer is configured to detect an acceleration experienced by a vehicle and to generate a signal indicative of the acceleration. The processor is configured to obtain the signal from the three-axis accelerometer and to determine when the vehicle has experienced a collision based, at least in part, on the signal.

Abstract: A collision sensor, a collision sensing system, and a method of mounting a collision sensor to a vehicle are disclosed herein. An embodiment of the collision sensor includes, but is not limited to, a processor and a three-axis accelerometer that is communicatively coupled with the processor. The three-axis accelerometer is configured to detect an acceleration experienced by a vehicle and to generate a signal indicative of the acceleration. The processor is configured to obtain the signal from the three-axis accelerometer and to determine when the vehicle has experienced a collision based, at least in part, on the signal.

Abstract: An aftermarket device is disclosed herein. In an embodiment, the aftermarket device includes, but is not limited to, a housing that is configured to be mounted to an internal surface of a vehicle. The aftermarket device further includes, but is not limited to a processor that is mounted within the housing. The aftermarket device still further includes, but is not limited to, a mounting sensor that is associated with the housing and that is communicatively coupled with the processor. The mounting sensor is configured to detect a mounting status of the housing and to provide a signal to the processor. The signal contains information indicative of the mounting status of the housing. The processor is configured to determine that the housing is improperly mounted to the internal surface of the vehicle based on the mounting status.

Abstract: The present invention provides a system and a method to enhance HYGE impact simulator sled testing, enabling more accurate measurements of lower leg injury criteria and providing a more accurate restraint system evaluation during a HYGE impact simulator test. The system provides the generation of both rotational and translational footwell intrusion, replicating an actual barrier crash impact test. The rotational and translational footwell intrusion includes foot motion; lower leg motion, including various forces and moments; and knee motion, including interaction with the instrument panel.

Abstract: The present invention provides a system and a method to enhance HYGE impact simulator sled testing, enabling more accurate measurements of lower leg injury criteria and providing a more accurate restraint system evaluation during a HYGE impact simulator test. The system provides the generation of both rotational and translational footwell intrusion, replicating an actual barrier crash impact test. The rotational and translational footwell intrusion includes foot motion; lower leg motion, including various forces and moments; and knee motion, including interaction with the instrument panel.