A vehicle seat operation feedback and control system with a seat and an electronic display screen and a processor configured to receive a signal from the seat corresponding to an inoperable, almost inoperable, or undesired condition and provide feedback on the display screen of the inoperable, almost inoperable, or undesired condition.

A vehicle safety system includes an ignition detector that detects when a vehicle ignition is off. A motion sensor detects movement within the vehicle. A first thermostat detects when temperature within the vehicle reaches a predetermined threshold. A remote start module starts a vehicle engine when the ignition detector detects the vehicle ignition is off, the motion sensor detects movement within the vehicle and the first thermostat detects temperature within the vehicle has reached the predetermined threshold.

A system for intelligently disengaging vehicle creep, the system comprising one or more sensors configured to be operatively coupled with a vehicle, one or more processors configured to execute machine-readable instructions to obtain information from one or more of the sensors, compare obtained information with reference information, determine whether a creep disengaging condition has been satisfied based on the obtained information and the reference information, and disengage a creep function of the vehicle if it is determined that a creep disengaging condition has been satisfied. In some embodiments, the system disengages a vehicle's creep functionality when it is determined that the driver has exited the vehicle.

The present invention is directed to a SMA valve for controlling air supply to an air cell in a vehicle seat, comprising a control unit arranged to open the valve in predetermined cycles, each cycle having predetermined activation start and stop times, by supplying an electrical activation power to a SMA wire which in turn acts on a valve element to open the valve for each cycle when the SMA wire shortens upon reaching the threshold temperature, and a temperature sensor for sensing the ambient temperature around the SMA wire. According to the invention the control unit is arranged to receive the temperature signal from the temperature sensor and to determine an activation delay time and an deactivation delay time in dependence on the temperature sensed by the temperature sensor, and to correct the activation start time and the activation stop time for the activation delay time and the deactivation delay time, respectively, to provide a corrected activation start time and a corrected activation stop time to be used for the next cycle.

A wire harness connected to a sensor is positioned on a back surface of a pad of a vehicle seat supported by a panel. The vehicle seat includes a panel; a pad supported by the panel; a skin material covering a front surface of the pad; and a sensor provided between the front surface of the pad and the skin material for acquiring information on a seat occupant, wherein the pad is provided with a through hole passed from the front surface of the pad to a back surface of the pad, and a recess formed in the back surface of the pad and connected to the through hole, the wire harness connected to the sensor extending in the through hole and the recess.

The Baby Alert Car Seat AlarmSmart Car Seat, is a device or smart car seat that detects the presence of a baby or child placed, or secured in a car seat, within the vehicle, before and after the driver of the vehicle has reached his/her destination; and, after the ignition is turned off, alerts the driver of the vehicle that the baby or child remains place or secured in a car seat within the vehicle; or, once the baby or child is placed, or secured in a car seat, within the vehicle, if the ignition is not turned on within a preset time, the Baby Alert Car Seat AlarmSmart Car Seat will alert the driver of the vehicle that a baby or child remains placed or secured in a car seat within the vehicle.

A system includes a vehicle having a vehicle network and a set of earpieces in operative communication with the vehicle network. The vehicle is configured to assign a plurality of access rights to the user of the set of earpieces based on both the identity of the user and the role of the user. A method for identifying a role of one or more users within a vehicle includes identifying one or more users within the vehicle, identifying the roles of one or more of the users within the vehicle using a set of wireless earpieces, and providing access rights to the one or more users within the vehicle in response to identification of one or more of the users within the vehicle.

A heat flux sensor is installed in such a way that heat flux emanating from a biological object present at a predetermined position is detectable. It is determined whether or not a biological object is present at the predetermined position by comparing sensing results of the heat flux sensor with determination criteria. The determination criteria is preset according to heat flux that can be sensed when a biological object is present at the predetermined position. When the sensing results of the heat flux sensor satisfy the determination criteria, in other words, when the heat flux sensed by the heat flux sensor is the heat flux emanating from a biological object, it is determined that a biological object is present at the predetermined position. Consequently, it is possible to realize accurate detection of a biological object.

A vehicle control system includes an information acquisition unit configured to acquire time change information of which a value changes with time, a seat driving unit configured to drive at least a part of a seat on which an occupant of a vehicle is seated, and a seat control unit configured to control the seat driving unit on the basis of a change in the value of the time change information acquired by the information acquisition unit.

The present application discloses a vehicular safety seat for a passenger including a detector configured to detect a plurality of physiological parameters and a plurality of environmental parameters associated with the passenger; a first transmitter configured to transmit a first set of physiological and environmental parameters detected by the detector; a first receiver configured to receive a control signal for controlling at least one parameter from among the plurality of physiological and environmental parameters based on a determination that a monitored parameter in the first set of physiological and environmental parameters has a first value that exceeds a corresponding monitored parameter threshold value; and an adjustor configured to adjust at least one of the plurality of environmental parameters based on the control signal.