A computer-implemented method of predicting a tire gas temperature of an aircraft tire including receiving data of a plurality of measurements of temperature with associated times after a landing event, the data measured by a tire monitoring device affixed to an aircraft wheel; selecting a temperature profile from a plurality of predetermined temperature profiles based on the received data, the plurality of temperature profiles representing heating and cooling under different conditions; and predicting a future tire gas temperature based on the selected temperature profile and the received data. Another method includes: receiving data of a plurality of measurements of temperature with associated times, the data measured by a tire monitoring device affixed to an aircraft wheel; determining a gradient of the temperature from the data; and predicting a future tire gas temperature using the gradient.

The invention relates to equipment, devices and methods for testing a calibrated leak or passage of pressurized gas from a tire. In one example, a test plug including a calibrated cross section orifice and a predetermined gas flow rate is connected to a tire. The test plug applies a pressure opening the tire valve member to release gas from the tire through the test plug. In one example, a TPMS sensor and a TPMS measurement tool are used to measure the decrease of air pressure in the tire through the test plug and determine if the TPMS sensor is operating properly. In one example, a plurality of test plugs with different gas flow rates are provided. A method for testing the calibrated leak using the test plug is further disclosed.

A method for monitoring an automobile based on a satellite, and a vehicle-mounted computer are provided. The method includes: acquiring first information of the automobile; sending the first information to the satellite through a satellite data transfer unit (DTU); and receiving and displaying second information from a cloud monitoring platform.

Systems and methods for vehicle sensor learning using a low power wake-up receiver is disclosed. In a particular embodiment, a tire monitoring that comprises a low power receiver and a transceiver receives, at the low power receiver, a radio frequency (RF) activation signal from a remote device, transitions to a wake state in response to receiving the activation signal, and transmits, via the transceiver, an RF response signal including an identification code to the remote device. The remote device, such as a handheld activation tool or an activation station in an assembly line, transmits the activation signal, receives the response signal, and associates the identification code of tire monitoring sensor with a location on the vehicle. The identification code and location may be provided to the vehicle control system.

A method of copying data from a first device to a second device, each device including a wireless communication interfaces having a maximum range, is disclosed. The first device and the second device are separated by a distance greater than the maximum range. The method includes: transmitting, by the first device, the data to a third device positioned within the maximum range of the first device; receiving the data at the third device and storing the data in a memory of the third device; moving the third device to a physical location within the maximum range of the second device; and transmitting, by the third device, the data to the second device.

A method of communicating configuration data of a tire pressure monitoring device configured to be affixed to a wheel is disclosed. The method includes, at the tire pressure monitoring device, receiving a request to confirm configuration data, and responsive to receipt of the request to confirm configuration data, transmitting a configuration data signal which encodes the configuration data. The configuration data signal is configured to be received and understood by a human.

A tire pressure detection system with separated antennas includes a detection end and a receiving end. The detection end includes tire pressure detectors to detect the tire to obtain the information of tire status. The tire pressure detectors output the information of the tire status in the form of radio frequency signal and Bluetooth signal. In addition to the transmission to the built-in tire-pressure receiving device, the information of the tire status also can be displayed on the in-vehicle audio-video device and the user's mobile device.

A method of checking tyre pressures using a control device having a wireless communication interface and at least one tyre monitoring device is disclosed. Each tyre monitoring device is mounted on a respective wheel of a vehicle and comprises a wireless communication interface and a pressure sensor for sensing an inflation pressure of a tyre on the respective wheel. The method includes, at the control device: receiving an input and, responsive to the input: identifying a plurality of tyre monitoring devices within a wireless communication range of the control device, wherein the identifying comprises receiving responses from each tyre monitoring device within the wireless communication range, each response including a vehicle identifier associated with a vehicle upon which the tyre monitoring device is installed; selecting a vehicle identifier to be the subject of the request to check a tyre pressure based on the received responses; and sending a request to check tyre pressure to at least one tyre monitoring device associated with the selected vehicle identifier.

A system and method includes accessing a road network database to identify a tire cost for a plurality of edges in a mining road network, identifying least-cost paths between each of a plurality of nodes on the mining road network using the tire cost for each of the plurality of edges, the nodes including a loading area and a dumping area for a plurality of haul trucks, accessing a distributed objects database to identify constraints for the nodes on the mining road network, determining a production plan using the constraints for the nodes on the mining road network by maximizing a function of the form αf′(x)−βg′(x), where f′(x) is a normalized measure of productivity, g′(x) is a normalized measure of impact on tire conditioning, and α and β are nonnegative constants with α+β=1, subject to constraints on resource capacities and production requirements, with the material flow rates between each of the nodes on the mining road network specifying the production plan, determining a task assignment for each of the plurality of haul trucks using the production plan as guide, and transmitting the task assignment for each of the plurality of haul trucks.

A tire theft monitoring system includes a transmitter attached to a tire and configured to transmit tire ID information, a second database configured to store the vehicle ID information of the vehicle and contact information of an owner of the vehicle in association with each other, and a monitoring apparatus mounted on a vehicle to be monitored, and the monitoring apparatus includes a reader configured to perform near field communication with the transmitter attached to the tire mounted on the vehicle to be monitored, to acquire the tire ID information, and a controller configured to, in a case where the reader cannot acquire the tire ID information, determine that the tire identified with the tire ID information has been stolen and make a notification to contact information stored in the second database in association with vehicle ID information of the vehicle to be monitored.