Abstract: A vehicle includes a body structure, a mirror assembly, a controller, and a position sensor. The mirror assembly includes a mirror housing, housing motor, and mirror. The housing motor is operably coupled with the mirror housing and the body structure and is configured to facilitate movement of the mirror housing relative to the body structure. The controller is in electrical communication with the housing motor. The position sensor is in electrical communication with the controller. The controller is configured to detect a position of a rider of the vehicle and to facilitate selective operation of the housing motor to result in movement of the mirror housing to correspond with the detected position of the rider.

Abstract: A vehicle entry/tire pressure monitoring system for a vehicle includes an ECU, LF antennas mounted on the vehicle and being in communication with the ECU, and tire sensors mounted in, on or adjacent respective tires of the vehicle. Each LF antenna is configured to transmit an LF tire sensor wake up field and a SMART entry LF search field to wake up a portable transmission/reception unit for keyless entry of the vehicle tire sensor. Each tire sensor includes a two-axis receiver antenna and an RF transmitter configured to transmit an RF signal. Each two-axis receiver antenna is configured such that a first axis of the two-axis antenna is configured to detect a respective LF field transmitted by one of the LF antennas and a second axis of the two-axis antenna is configured to detect a respective LF field transmitted by another of the LF antennas.

Abstract: A method for applying driver preference settings for a vehicle includes transmitting an exterior signal from at least one closure antenna. The method further includes determining whether a valid response signal was received in response to the transmitted exterior search signal. The valid response signal includes a respective ID code unique to a fob that transmitted the valid response signal. Upon determining that a valid response signal was received, the method further includes determining whether a door switch flag allows for changing of a driver preference setting. Upon determining that the door switch flag allows for changing the driver preference setting, the method includes assigning the driver preference setting based on the respective ID code in the received response signal. The assigned driver preference setting includes at least one of a vehicle seat setting, a rearview mirror setting, a side view mirror setting, a radio station setting, and an HVAC setting.

Abstract: A smart entry system for a vehicle having a lockable trunk is provided. The smart entry system includes portable devices, an onboard transmitter for transmitting request signals to the portable devices, an onboard receiver for receiving identification signals from the portable devices, and a trunk lockout protection feature. The trunk lockout protection feature is configured to receive a command signal to either initiate a trunk lockout protection sequence to unlock the trunk in the event that one of the portable devices is locked in the trunk or to disable the trunk lockout protection sequence to permit the trunk to remain in a locked state in the event that one of the portable devices is locked in the trunk.

Abstract: A vehicle system includes a plurality of tire sensors, a plurality of low frequency (“LF”) antennas and an ECU. Each tire sensor is mounted in a respective tire of the vehicle. Each LF antenna is mounted on the vehicle and is configured to transmit an LF field to wake up two tire sensors. The ECU is in communication with the tire sensors, via a receiver, and the LF antennas. The ECU is configured to receive identification signals from the respective tire sensors and to determine locations of the respective tire sensors based on which antenna woke up the tire sensor transmitting the respective identification signal and whether the respective identification signal matches other received identification signals. The ECU is further configured to store the identification signals in the memory with the identification signals being associated with the respective tire sensors that transmitted the identification signal.

Abstract: A vehicle entry/tire pressure management system includes a plurality of tire sensors, a plurality of low frequency (“LF”) antennas and an ECU. Each tire sensor is mounted in a respective tire of the vehicle. Each LF antenna is mounted on the vehicle and is configured to transmit an LF field to wake up two tire sensors. Some antennas can also be configured to transmit a SMART entry LF search field to wake up a portable transmission/reception unit for keyless entry of the vehicle. The ECU is in communication with the tire sensors, via a receiver, and the LF antennas. The ECU is configured to receive identification signals from the respective tire sensors and to determine locations of the respective tire sensors based on which antenna woke up the tire sensor transmitting the respective identification signal and whether the respective identification signal matches other received identification signals.

Abstract: A tire pressure monitoring system includes tire sensors mounted in, on or adjacent respective tires of the vehicle, LF antennas mounted on the vehicle, and an ECU. Each tire sensor is configured to transmit an RF signal and to detect an LF field. Each antenna is configured to transmit an LF field to wake up the tire sensors. The ECU is in communication with the antenna, the tire sensors and a radio configured to receive AM broadcast signals. The ECU can communicate with the radio to inhibit speakers in communication with the radio from emitting sound while each LF field to wake up the tire sensors is being transmitted.

Abstract: A smart communication system and method for a vehicle includes a master switch for toggling smart functionality on and off. An actuation signal is received by a control unit corresponding to a particular vehicle function. The actuation signal indicates that a corresponding actuating operation is occurring. The control unit determines whether the master switch is in an ON position. A key fob of the vehicle is confirmed to be within a search field of the vehicle when the master switch is determined to be in the ON position. The particular vehicle function is actuated when the key fob is confirmed to be within the search field; otherwise, manual actuation of the particular vehicle function is required.

Abstract: A system for transitioning a key fob between a standard operating mode and a battery conserving shipping mode includes a shipping mode controller which detects a vehicle state indicative of a vehicle shipping mode operation having been performed, and causes a shipping mode instruction signal to be sent from a vehicle to the key fob associated with that vehicle instructing the key fob to transition from the standard operating mode to the shipping mode. The vehicle shipping mode operation is an operation which initiates a transition of the vehicle from a standard operating mode to a shipping mode, and serves as a trigger for the shipping mode controller to transmit the shipping mode instruction signal. When in the shipping mode, the key fob may be entirely powered-off or have certain communication-related functions disabled.

Abstract: A system for transitioning a key fob between a standard operating mode and a battery conserving shipping mode includes a shipping mode controller which detects a vehicle state indicative of a vehicle shipping mode operation having been performed, and causes a shipping mode instruction signal to be sent from a vehicle to the key fob associated with that vehicle instructing the key fob to transition from the standard operating mode to the shipping mode. The vehicle shipping mode operation is an operation which initiates a transition of the vehicle from a standard operating mode to a shipping mode, and serves as a trigger for the shipping mode controller to transmit the shipping mode instruction signal. When in the shipping mode, the key fob may be entirely powered-off or have certain communication-related functions disabled.

Abstract: A vehicle entry/tire pressure management system includes an ECU, tire sensors mounted in, on or adjacent respective tires of the vehicle, a portable transmission/reception unit configured to be carried by an operator of the vehicle, and an antenna mounted on the vehicle and in communication with the ECU. Each tire sensor is configured to transmit an RF signal. The portable transmission/reception unit can transmit RF signals for controlling operations of the vehicle including unlocking doors of the vehicle. The antenna is configured to transmit an LF tire sensor wake up field to wake up the tire sensors. The tire sensor wake up field includes a unique header format. The tire sensors only fully wake up upon receiving the unique header format.

Abstract: A vehicle battery management system and method includes a battery, a battery sensor for measuring a condition of the battery and an electronic control unit that receives a signal from the battery sensor corresponding to the condition of the battery. The electronic control unit selectively connects and disconnects that the battery from each of: at least one accessory load and at least one other load. The at least one other load is disconnected from the battery when the vehicle is in a shipping mode and the at least one accessory load is connected to the battery when the vehicle is in an accessory ON mode. The electronic control unit disconnects the at least one accessory load from the battery when the vehicle is in the accessory ON mode and in the shipping mode when the signal indicates that the condition of the battery is below a predetermined threshold.

Abstract: A smart communication system and method are provided for illuminating an indicator on a portable device wherein at least one search signal is transmitted from at least one vehicle antenna in response to receipt of an actuation signal requesting a vehicle function be performed. A transmitted location information signal is received after the portable device receives the at least one search signal and transmits the location information signal. Whether the particular vehicle function is appropriate is determined based on the received location information signal. Both a command signal corresponding to the vehicle function and an indicator signal for illuminating the indicator on the portable device are sent when determined that the vehicle function is appropriate to perform based on the received location information signal.

Abstract: A system and method for controlling power windows of a vehicle includes a receiver mounted on the vehicle for receiving an open window request signal wirelessly from a portable device, at least one exterior condition sensor mounted on the vehicle for detecting an adverse exterior condition relative to the vehicle, and a controller mounted on the vehicle for communicating with the receiver and the at least one exterior condition sensor. The controller commands opening of the one or more power windows when the receiver receives the open window request signal provided the at least one exterior condition sensor does not detect an adverse exterior condition relative to the vehicle.

Abstract: A wireless unit for a wireless vehicle system includes a receiver for receiving a vehicle-originating signal, a transmitter for transmitting a reply signal, a received signal strength indicator (RSSI) for determining a received signal strength of the vehicle-originating signal, a memory for storing sensitivity data, and a control unit in electrical communication with the receiver, the transmitter, the RSSI and the memory. The receiver has a sensitivity, and the memory is for storing sensitivity data corresponding to the sensitivity of the receiver. The control unit is configured to communicate with the transmitter to direct the transmitter to transmit the reply signal. The reply signal includes received signal strength data used for determining a distance between the wireless unit and an associated vehicle-side transmitter on an associated vehicle. The received signal strength data is based on the received signal strength and the sensitivity data.

Abstract: A slide actuated key fob includes a housing having a transmitter disposed therein and at least one slide actuated button disposed on the housing. The transmitter sends an actuating signal when the at least one slide actuated button is slidably moved in a first direction and subsequently depressed in a second direction.

Abstract: A key fob assembly includes a mechanical key, a key fob, a control in the key fob, Hall effect switches in the key fob, and magnets associated with the mechanical key. The mechanical key is configured to cooperate with a mechanical lock. The key fob is configured to selectively connect with the mechanical key. The control in the key fob is for transmitting wireless signals to a vehicle to actuate components on the vehicle. The Hall effect switches in the key fob are each in electrical communication with the control. At least one of the Hall effect switches changes an operating state based on detecting a positive magnetic field and at least one other Hall effect switch changes an operating state based on detecting a negative magnetic field. Respective poles of the magnets are disposed such that connection of the mechanical key with the key fob in a storage position aligns the poles of the magnets with respective Hall effect switches for changing the operating state of the respective Hall effect switches.

Abstract: A vehicle system that can overcome at least some of the aforementioned shortcomings includes tire sensors mounted in, on or adjacent respective tires of the vehicle, LF antennas including a door-mounted antenna on a door of the vehicle, a receiver mounted on the vehicle, a door switch associated with the door having the door-mounted antenna mounted thereto, and an ECU in communication with the antennas, the receiver and the door switch. Each tire sensor is configured to transmit a signal and to detect an LF field. Each LF antenna is configured to transmit an LF tire sensor wake up field to wake up respective tire sensors. The receiver is configured to receive signals transmitted from the tire sensors. The door switch is configured for determining whether the door is open. The ECU is configured to receive identification signals from the respective tire sensors via the RF receiver.

Abstract: A smart entry system for a vehicle having a lockable trunk is provided. The smart entry system includes portable devices, an onboard transmitter for transmitting request signals to the portable devices, an onboard receiver for receiving identification signals from the portable devices, and a trunk lockout protection feature. The trunk lockout protection feature is configured to receive a command signal to either initiate a trunk lockout protection sequence to unlock the trunk in the event that one of the portable devices is locked in the trunk or to disable the trunk lockout protection sequence to permit the trunk to remain in a locked state in the event that one of the portable devices is locked in the trunk.

Abstract: A keyless function system and method includes a portable device having a vehicle function actuator thereon for initiating operation of a vehicle function. The portable device transmits an actuation signal to the vehicle when the vehicle function actuator is actuated. The receiver onboard the vehicle receives the actuation signal from the portable device. A controller onboard the vehicle and operatively connected to the receiver determines at least one of: whether the vehicle is located at a predetermined location or whether the portable device is located less than a predetermined distance from the vehicle. The controller selectively commands performance of the vehicle function when the actuation signal is received by the receiver based on at least one of: whether the vehicle is at the predetermined location or the portable device is less than the predetermined distance from the vehicle.