The present invention relates generally to an automobile tire pressure display, which has a host matching the tire pressure detectors of any brands to achieve monitoring effect, comprising a MCU, a low frequency transmitting unit, a radio frequency receiving/transmitting unit and a database unit; in implementation, the MCU sends different low frequency commands to wake up the tire pressure detector, and receives the radio frequency signal from the tire pressure detector, which is matched with the vehicle type protocols in the database unit, if the judgment succeeds, the MCU records the vehicle type protocol and monitors the pressure and temperature values of tire pressure detector; on the contrary, if the judgment fails, the commands are sent and the signals are received continuously to judge whether the vehicle type protocol is correct or not, till success and it is recorded in the database unit.

Disclosed embodiments include apparatuses, systems, and methods for providing a sound indicative of a pressure of a tire relative to a target pressure. A target pressure specifier is configured to specify a target pressure for a tire and generate a target pressure signal indicative of the target pressure. A pressure monitor is configured to receive the target pressure signal, a current pressure signal indicative of a current pressure of the tire, and an indicator of a deliberate change in the current pressure and compare the current pressure signal with the target pressure signal responsive to the indicator. A status signal is generated indicative of a status of the current pressure signal relative to the target pressure signal. An audio generator is configured to receive the status signal and to generate a sound audible outside of the passenger compartment of the vehicle that is indicative of the status signal.

A tire pressure detector includes: an air pressure detector to repeatedly detect air pressure of a target tire; a transmission device to wirelessly transmit air pressure information about the air pressure detected by the air pressure detector; a reception device to receive the air pressure information transmitted by the transmission device; an estimation device to calculate, when the reception device receives the air pressure information on the identical target tire a plurality of times, an estimated air pressure based on a plurality of pieces of the latest air pressure information received by the reception device, the estimated air pressure being an estimated value of the air pressure at current time; and an alarm generation device to raise an alarm when the estimated air pressure becomes equal to or less than a specified threshold.

Disclosed embodiments include apparatuses, systems, and methods for providing a sound indicative of a pressure of a tire relative to a target pressure. A target pressure specifier is configured to specify a target pressure for a tire and generate a target pressure signal indicative of the target pressure. A pressure monitor is configured to receive the target pressure signal, a current pressure signal indicative of a current pressure of the tire, and an indicator of a deliberate change in the current pressure and compare the current pressure signal with the target pressure signal responsive to the indicator. A status signal is generated indicative of a status of the current pressure signal relative to the target pressure signal. An audio generator is configured to receive the status signal and to generate a sound audible outside of the passenger compartment of the vehicle that is indicative of the status signal.

A method of determining a status of a tyre monitoring device is disclosed. The tyre monitoring device includes a counter initiated on a first use of the tyre monitoring device on a wheel and the method includes: determining a current value of the counter; determining a status of the tyre monitoring device based on the current value of the counter; and providing an indication based on the determined status. In some examples, the status is a remaining service lifetime and the indication may be a replacement notification. A method of cross-checking data between tyre monitoring devices is also disclosed. The method includes receiving data from a plurality of tyre monitoring devices associated with respective tyres of a same vehicle; comparing the received data from different ones of the plurality of tyre monitoring devices; determining inconsistent data associated with at least one of the plurality of tyre monitoring devices based on the comparison; and providing an indication of the inconsistent data.

A tire pressure detection device includes an emitter and a receiver. The emitter is installed to a tire to detect tire pressure, and the emitter sends the tire pressure data via Bluetooth communication to the receiver. The receiver is operated by a user so as to pair the emitter on the tire that is to be checked. The receiver is an elongate part which includes an LF trigger coil connected to the front end thereof. The LF trigger coil is moved to close to the emitter and activates the emitter, such that the tire pressure is sent to the receiver. The emitter has to be paired with the receiver to send the tire pressure to the receiver.

A method of determining a status of a tyre monitoring device is disclosed. The tyre monitoring device includes a counter initiated on a first use of the tyre monitoring device on a wheel and the method includes: determining a current value of the counter; determining a status of the tyre monitoring device based on the current value of the counter; and providing an indication based on the determined status. In some examples, the status is a remaining service lifetime and the indication may be a replacement notification. A method of cross-checking data between tyre monitoring devices is also disclosed. The method includes receiving data from a plurality of tyre monitoring devices associated with respective tyres of a same vehicle; comparing the received data from different ones of the plurality of tyre monitoring devices; determining inconsistent data associated with at least one of the plurality of tyre monitoring devices based on the comparison; and providing an indication of the inconsistent data.

This disclosure generally pertains to systems and methods related to tire air pressure notifications. An example method that can be executed by a processor in a vehicle can include detecting a tire inflation operation performed upon a wheel of the vehicle and determining that air is escaping out of a tire of the wheel of the vehicle during the tire inflation operation. The processor may then issue an alert based on determining that air is escaping out of the tire. The alert may be provided in various ways such as, for example, via a haptic signal transmitted through a vibration element located in the wheel of the vehicle and/or by waggling the wheel of the vehicle. In an example implementation, waggling the wheel of the vehicle may be carried out by the processor by operating a steering wheel control system of the vehicle.

A tire pressure detector includes: an air pressure detector to repeatedly detect air pressure of a target tire; a transmission device to wirelessly transmit air pressure information about the air pressure detected by the air pressure detector; a reception device to receive the air pressure information transmitted by the transmission device; an estimation device to calculate, when the reception device receives the air pressure information on the identical target tire a plurality of times, an estimated air pressure based on a plurality of pieces of the latest air pressure information received by the reception device, the estimated air pressure being an estimated value of the air pressure at current time; and an alarm generation device to raise an alarm when the estimated air pressure becomes equal to or less than a specified threshold.

A method for monitoring an air pressure in at least one tire of a motor vehicle, wherein at least one air pressure in the tire is detected by at least one measuring electronics unit present in the tire and data is transmitted by the measuring electronics unit to a control unit. Depending on the data, the control unit activates components of the motor vehicle to generate optical and/or acoustic signals. The control unit is switched into an after-running mode for a defined period of time when an ignition of the motor vehicle is shut off, in which mode the control unit can continue to receive data from the measuring electronics unit and may activate components of the motor vehicle to generate optical and/or acoustic signals.