This application relates to a tire sensor configuring device and a smart tire system including the same. In one aspect, the tire sensor configuring device includes a transceiver receiving a communication module identification code of a communication module provided in a vehicle to communicate with a smart tire management server, tire identification codes of a plurality of tires mounted to the vehicle, and sensor identification codes of sensor modules respectively attached to the plurality of tires. The tire sensor configuring device may also include a controller configured to arrange the communication module identification code, the tire identification codes, and the sensor identification codes according to a protocol previously created in association with the smart tire management server to form a packet. The transceiver transmits the packet to the communication module.

Systems and methods for determining the health of a seal in a tire inflation system are provided. In one example, a method of determining the health of a seal of a tire inflation system on a vehicle includes obtaining one or more pressure measurements of a tire of the vehicle with a pressure transducer in communication with an electronic control unit and sending the one or more pressure measurements to a computer network via a communication network that receives signals from the electronic control unit, the communication network including a telematics device in communication with the computer network, wherein the computer network is configured to determine the health of the seal based on the one or more pressure measurements communicated by the telematics device.

Restricting commands for a tire monitoring device including controlling entry into a configuration mode and restricting operation based on detection of an abnormal command pattern. The method includes, at a tire monitoring device: receiving a configuration request from a first device for the tire monitoring device to operate in a configuration mode, the configuration request provided using a first wireless communication protocol; responsive to receipt of the configuration request, initiating communication using a second wireless communication protocol; establishing successful communication using the second wireless protocol; and entering the configuration mode responsive to establishing successful communication using the second wireless communication protocol. In another example, a method restricts operation of a lire monitoring device including receiving instructions via a wireless communication interface; detecting an abnormal instruction pattern based on the received instructions; and restricting the operation of the tire monitoring device responsive to detecting the abnormal instruction pattern.

A tire pressure monitoring system monitors the pressure in at least one tire supporting a vehicle. The system includes at least one sensor mounted on the tire for measuring a pressure and a temperature of the tire. Transmission means transmit the measured pressure data and temperature data to a processor, and a tire pressure model is executed on the processor. The tire pressure model includes a driving event extractor to extract cold pressure data from the measured pressure data, and a temperature compensator to generate a compensated cold tire pressure from the cold pressure data. A noise filter filters sensor noise and generates a filtered cold tire pressure from the compensated cold tire pressure. A detection module receives the filtered cold tire pressure and determines an air pressure leak rate of the tire, and a leak notification corresponding to the air pressure leak rate is generated.

A wireless programming method for tire pressure detectors includes the following steps. A wireless programmer sends an activating command. The tire pressure detectors send a responding message. The wireless programmer receives the responding messages and records identification codes in the received responding messages. The wireless programmer sends a stop-responding command to make the tire pressure detector with the identification codes, which is recorded in the wireless programmer, enter a stop-responding mode. The wireless programmer sends the activating command again. The tire pressure detectors not in the stop-responding mode send the responding messages. The wireless programmer receives the responding message and records the identification code in the received responding message. The wireless programmer sends a code to the tire pressure detectors corresponding to the recorded identification code to program the code. With such design, it could be ensured that the code could be sent and programmed into all the tire pressure detectors.

A tire pressure sensor includes a pressure sensor element, a Bluetooth low-energy (BLE) interface and a microcontroller that is coupled to the pressure sensor element and the BLE interface. The microcontroller can be switched between an energy saving mode and an active operating mode. A battery is provided for voltage supply. The BLE interface is designed to establish a BLE communication with a reader designed for BLE communication and to initiate switch-over of the microcontroller from its energy saving mode to its active operating mode in response to the BLE communication being established.

A system for determining abnormalities of a TPMS that includes a pressure sensor that senses a pressure inside a tire and transmits sensed pressure data as a radio signal, a reception unit that receives the radio signal from the pressure sensor and measures strength of the received radio signal, and a determination unit that determines an abnormality of the TPMS based on the radio signal received, and the strength of the radio signal measured, by the reception unit.

A mobile electronic device (102, 300), and a method, for obtaining a tyre pressure reading from a tyre pressure sensor module (700) fitted to a valve of a pneumatic tyre (106), a tyre pressure sensor module, a locating feature (304, 400) and a tyre pressure gauge system comprising the above. The mobile electronic device comprising: a transmitter (202) and a receiver (200) to transmit and receive telecommunications signals over a distance of up to 4 cm to obtain the tyre pressure reading; and a locating feature to indicate when the transmitter and/or receiver are located within 4 cm or less of the tyre pressure sensor module. The tyre pressure sensor module comprising an antenna to detect a telecommunications signal from a mobile electronic device over a distance of up to 4 cm, a transmitter (902), a receiver (904) and a pressure sensor (916) to measure tyre pressure.

A method for detecting wheel units mounted at wheels of a vehicle and for detecting wheel mounting positions belonging to each of the wheel units is disclosed. The method comprises the steps of: positioning a mobile communication device at a predetermined start position with respect to the vehicle moving the mobile communication device from the start position along a path around the vehicle receiving RF signals from the wheel units and measuring the RF signal strengths thereof by the mobile communication device when moving along the path around the vehicle performing an analysis of variations of the measured RF signal strengths of the received RF signals depending on the position of the mobile communication device along the path identifying the wheel units and identifying the wheel mounting positions based on a result of the analysis.

A method for adjusting the periodicity of wireless communications between a tire pressure monitoring system for a motor vehicle and a smart device for a user of the vehicle in question is disclosed. On the basis of the position and any movement of the user's smart device in the environment of the vehicle, the periodicity of the alternation, by the different units of the system, of phases of transmission/polling of ultra high frequency signals with standby phases is modified.