A vehicle temperature control system includes: an air conditioning unit configured to cool and heat an interior of a vehicle; a first thermoelectric module mounted in a steering wheel of the vehicle and configured to be selectively heated or cooled; a second thermoelectric module mounted in a seat of the vehicle and configured to be selectively heated or cooled; and an integrated control unit configured to integrally control the air conditioning unit, the first thermoelectric module, and the second thermoelectric module, thereby obtaining an advantageous effect of improving temperature control efficiency and energy efficiency.

Techniques are disclosed for controlling a plurality of components of a vehicle that are configured to emit heat when activated. A controller receives heat demand information about the activated components and determines from the heat demand information, an amount of power available for consumption by all of the activated components. The controller actively allocates power between the activated components according to the determined amount of power available such that an actual amount of power consumed by all of the activated components does not exceed the determined amount of power available.

A system for heating and cooling a passenger seat utilizing a single unit for producing hot and cold conditioned air. The system includes a source of pressurized air, a vortex tube coupled to the source of pressurized air for producing hot and cold air streams, a duct network coupled to the vortex tube through a valve assembly, and a controller controlling passage of the flow of hot and cold air streams through the manifold assembly based on passenger selection. Conditioned air flow can be dispersed into a cushion assembly such as an interior of a spacer mesh component of the cushion assembly.

A heating device for a vehicle seat, that includes at least one heating surface that is at least in sections permeable to heat radiation; and at least one heat generator arranged at least partially behind the at least one heating surface. The at least one heat generator is configured to generate the heat radiation and to emit the generated heat radiation in a direction of at least one heating surface. The at least one heating surface has a plurality of emission zones that are spaced apart from one another, for emitting the heat radiation.

A vehicle with a flat seat may include a floor portion having a leg groove recessed downward from a surface of the floor portion; a seatback disposed on the floor portion and reclining by a rotation of the lower end; a seat cushion disposed on the floor portion ahead of the seatback; and a leg cushion disposed in the leg groove of the floor portion and having a rear portion rotatably coupled to the seat cushion.

A car seat includes a first heater, a second heater, and a control unit which controls an output to the first heater and an output to the second heater. The control unit executes a temperature-difference adjustment control, in which the output of the second heater is controlled such that the temperature of the bulging portion heated by the second heater with respect to the temperature of the seating surface portion heated by the first heater is made lower when an ambient temperature is a first temperature than when the ambient temperature is a second temperature which is higher than the first temperature.

A vehicle seat including: a seat body on which an occupant is capable of sitting, the seat body including a seat heater including a heater wire, wherein the heater wire of the seat heater constitutes a bent member having a predetermined shape, the bent member being obtained by bending the heater wire, and wherein the bent member is pulled and the predetermined shape of the bent member is deformed as pressure applied to a seat surface of the seat body increases, so that a density of the heater wire per unit area of the seat surface decreases.

A passenger identification apparatus for vehicles is provided to identify a passenger through integration of a sensor that senses change in permittivity and a sensor that senses change in pressure. The apparatus includes a permittivity change sensing unit that is installed in the seat and senses change in capacitance generated by permittivity of the passenger seated on the seat and a pressure change sensing unit that is installed in the seat and senses change in pressure generated by a load of the passenger seated on the seat. A controller adjusts power supplied to the permittivity change sensing unit and the pressure change sensing unit and determines whether the passenger is seated on the seat and the type of passenger using permittivity and pressure change values sensed by the permittivity change sensing unit and the pressure change sensing unit.

An armrest for an interior equipment part of a motor vehicle includes a decor layer, a support element, a cushion element disposed at least in sections between the support element and the decor layer, and a heating element disposed at least in sections on the decor layer. Furthermore, the armrest includes a sensor element that includes an electrode and a counter electrode. The sensor element is electrically connected to a control unit, wherein the sensor element is designed to send an electric sensor signal to the control unit when the distance between the electrode and the counter electrode changes at least in regions, and the control unit is designed to switch the heating element off and/or on as a function of the sensor signal.

A temperature control method for vehicle seat heating includes: when turning on or switching to a heating level, determining a heating period at present according to a temperature value corresponding to a current Negative Temperature Coefficient (NTC) sensor, the heating period including an initial heating stage, an approaching stage and a steady stage; and segmentally controlling the on-off of a seat heating apparatus according to a heating strategy corresponding to each heating period, so that the seat surface temperature reaches to and stabilizes at an expected target temperature of the level. Further disclosed are a corresponding temperature control apparatus for the vehicle seat heating and a temperature control system for the vehicle seat heating. By adopting the temperature control method for the vehicle seat heating, the seat surface temperature can quickly reach to and stabilize at the expected temperature value, and thus the use experience of a user is improved.