Abstract: A method of programming a tire pressure monitoring device includes the step of forming a physical interface between a tire pressure monitoring device and a programming device. The programming device includes a first memory including a plurality of selectable programs that provide instructions defining a communication protocol for communication between a tire pressure monitoring device and a receiver. The method further includes the step of selecting through a user interface of the programming device a desired one of the plurality of selectable programs and loading the selected one of the plurality of selectable programs from the first memory device of the programming device to a second memory device disposed within the tire pressure monitoring device.

Abstract: A programming system for a tire pressure monitoring device includes a programming device capable of communicating which of a plurality of communication protocols is to be utilized by the transmitter/receiver of a tire pressure monitoring device. The programming device including a user interface actuateable for communicating which of a plurality of communication protocols is to be utilized by the transmitter/receiver of the tire pressure monitoring device.

Abstract: A programming system for a tire pressure monitoring device includes a programming device capable of communicating which of a plurality of communication protocols is to be utilized by the transmitter/receiver of a tire pressure monitoring device. The programming device including a user interface actuateable for communicating which of a plurality of communication protocols is to be utilized by the transmitter/receiver of the tire pressure monitoring device.

Abstract: A method of programming a tire pressure monitoring device includes the step of forming a physical interface between a tire pressure monitoring device and a programming device. The programming device includes a first memory including a plurality of selectable programs that provide instructions defining a communication protocol for communication between a tire pressure monitoring device and a receiver. The method further includes the step of selecting through a user interface of the programming device a desired one of the plurality of selectable programs and loading the selected one of the plurality of selectable programs from the first memory device of the programming device to a second memory device disposed within the tire pressure monitoring device.

Abstract: A disclosed example receiver for receiving transmissions and data for both a remote keyless entry (RKE) system and a tire pressure monitoring (TPM) system tailors the data slice level to the characteristics unique to each of the RKE transmissions and the TPM transmissions.

Abstract: A receiver receives transmission containing information from different vehicle systems and determines an origin of that transmission according to the length of the transmission.

Abstract: A communication for a vehicle (10) has a first transmitter (34) for transmitting a first signal relating to a first vehicle system (22) and a second transmitter (42) for transmitting a second signal relating to a second vehicle system (38). (FIG. 1) A single receiver (46) has a first reception mode (50) and a second reception mode (54). The first reception mode (50) is receptive to the first signal while the second reception mode (54) is receptive to the second signal. A control unit (58) switches the receiver (46) between the first reception mode (50) and the second reception mode (54).

Abstract: A keyless ignition system for a vehicle includes an electronic control unit (ECU) that communicates through a wireless link with a start/stop button. The start/stop button includes a plurality of lighting sources to selectively illuminate the start/stop button for communicating current state of a vehicle operating parameter. The lighting sources are powered by a wireless power generating device within the start/stop button.

Abstract: A system for monitoring conditions within a tire (12) including a sensor assembly (14) including a pressure sensor (36), an accelerometer (34), a temperature sensor (32), and a transmitter (40) to transmit signals indicative of current tire conditions. A remote transmitter (22) for actuating a remote keyless entry system (19) emits a signal to actuate a function of the keyless entry system (19) such as unlocking doors (20) of the motor vehicle (10). A receiver assembly (16) includes an amplitude shift keyed receiver (52) and a frequency shift keyed receiver (58) selectively engagable to receive radio frequency transmissions from the tire monitoring system or the remote keyless entry system (19).

Abstract: A disclosed example receiver for receiving transmissions and data for both a remote keyless entry (RKE) system and a tire pressure monitoring (TPM) system tailors the data slice level to the characteristics unique to each of the RKE transmissions and the TPM transmissions.

Abstract: A tire pressure monitoring device includes a memory that includes a plurality of selectable communication protocols to govern communication and operation.

Abstract: A system for monitoring conditions within a tire includes a sensor assemblies (14). The sensor assemblies (14) emit a transmission (26) containing information indicative of conditions within a tire to a receiver (16). The transmission (26) from the sensor assemblies (14) includes an amplitude shift key wake up portion and various data packet portions. The data packet portions are separated by a variable interval to prevent collisions of transmissions at the receiver.

Abstract: A remote signaling receiver system includes a receiver that operates in two different modes of demodulation to accommodate different types of signals from different types of transmitting devices. A first demodulator, preferably an ASK demodulator, is adapted to process signals from a signal transmitter that generates a first type of signal. A second demodulator, preferably one that is not sensitive to amplitude modulation such as a FSK demodulator, is adapted to process signals received from at least one other type of device, which provides a second type of signal. A system designed according to this invention is particularly useful as a remote keyless entry system for a vehicle where one or more sensors are provided on the vehicle to provide an indication of a chosen condition of one or more of the vehicle components.

Abstract: A receiver receives transmission containing information from different vehicle systems and determines an origin of that transmission according to the length of the transmission.

Abstract: A method of controlling fleet vehicles includes the steps of identifying transmitter signals from a select group and an entire group to allow selective operation of certain specific vehicle functions. The method also includes the step of reprogramming a secret key and storing the previous secret key such that transmitters that have not already been programmed can be programmed if they include the old secret key.

Abstract: A passive entry and start system transmits a neutral signal over all the antennas except for that antenna that is proximate an area in which transmission to an identification device is desired. Accordingly, the area of a vehicle and those physical features that are proximate and associated with the area is isolated to prevent undesired operation of other vehicle mechanisms.

Abstract: An identification device is user configurable to communicate according to different communication protocols. Once the identification device has been set to a desired communication protocol where all it will immediately transmit an identification code to the corresponding vehicle controller such that the vehicle controller will learn the identification code and be able to recognize subsequent transmissions and authenticate the identification device.

Abstract: A method for sending and receiving transmissions for a remote keyless entry and immobilizer facilitates operation of multiple transmitters with multiple vehicles. A common secret key code stored in each transmitter and vehicle controller of the system is utilized to encrypt and decrypt information and data transmitted from the transmitter to the vehicle.

Abstract: To eliminate any mis-learning of a sensor code in a factory environment due to adjacent vehicles, a vehicle ID is sent to a sensor transmitter by an initiation signal. When the sensor transmitter transmits its sensor identification signal to the vehicle control in a “learn” mode, the vehicle ID received in the initiation signal is carried with a combined signal. The vehicle control receives the combined signal, and if the received vehicle identification code in the signal matches an expected vehicle identification code, then the control learns the sensor identification. If the expected vehicle identification code does not match the received vehicle identification code, then the control may ignore the particular sensor identification code. This invention thus eliminates any tendency to have an adjacent vehicle inadvertently “teach” its sensor IDs to the control associated with the adjacent vehicle.

Abstract: A system for monitoring conditions within a tire (12) including a sensor assembly (14) including a pressure sensor (36), an accelerometer (34), a temperature sensor (32), and a transmitter (40) to transmit signals indicative of current tire conditions. A remote transmitter (22) for actuating a remote keyless entry system (19) emits a signal to actuate a function of the keyless entry system (19) such as unlocking doors (20) of the motor vehicle (10). A receiver assembly (16) includes an amplitude shift keyed receiver (52) and a frequency shift keyed receiver (58) selectively engagable to receive radio frequency transmissions from the tire monitoring system or the remote keyless entry system (19).