Ventilation control systems and methods for a vehicle are presented. The system includes a touch screen that is configures to display an object and receive a selection of a part of the object. The system also includes an air vent that comprises at least one controllable fin and a motor that can control the configuration of that fin. A control circuitry of the system configures the fin, using the at least one motor, to direct air from the air vent to a location that corresponds to the selected part of the object.

Provided is a vehicle air conditioning controller including a memory and a processor coupled to the memory, wherein the processor determines whether or not an occupant in a cabin of a vehicle is applying makeup to herself/himself and, in a case in which it has been determined that the occupant is applying makeup, changes at least one of an air direction or an air volume of conditioned air that is generated by an air conditioning system installed at the vehicle and is supplied to the occupant from an air outlet provided in the cabin.

An assembly for a ventilation system of a vehicle is provided. The assembly is configured to use a single actuator to control direction of a vent and additionally control the flow rate of that vent. The assembly may comprise a single rotatable control member with two routes, one route used for controlling flow rate and one route for controlling flow direction. Each route may have a straight portion and curved portion.

The invention relates to a headliner system for a motor vehicle, said headliner system comprising at least one air supply connection for connecting the headliner system to an air conditioning and ventilation system of the motor vehicle, and at least one outflow device which is fluidically connected to the at least one air supply connection, wherein at least one outflow device has at least two outflow segments, wherein one outflow segment is designed to deliver a designated air volume flow to the passenger compartment, wherein a first outflow segment surrounds a second outflow segment at least in part, and wherein at least one outflow device is designed such that it can be displaced in at least one axis of the outflow device.

An air-conditioning system for air-conditioning a passenger cell with a front region and a rear region may include a housing including an air inlet, a front outlet, a rear outlet, and a footwell outlet. The system may also include an evaporator for cooling an airflow and a heating device for heating the airflow arranged in the housing. A cold air space, a hot air space, a front mixing space, a layering mixing space, and a rear mixing space may be arranged within the housing. The system may also include a front flap configured to control a first connection opening connecting the hot air space to the front mixing space, a layering flap configured to control a second connection opening connecting the hot air space to the layering mixing space, and a rear flap configured to control a third connection opening connecting the hot air space to the rear mixing space.

A vehicle air handling system includes a user input interface, air duct housing, first and second panel duct doors, at least one air blower, and a first panel actuation assembly. The air duct housing has an air inlet, and first and second panel ducts. The first and second panel duct doors are disposed to selectively open and close the first and second panel ducts, respectively. Air is drawn into the air duct housing via the air inlet and conveyed toward the panel ducts. The first panel actuation assembly is operatively coupled to the first and second panel duct doors to simultaneously control positions in response to operation of the user input interface between a plurality of settings. The positions of the first and second panel duct doors include at least one setting in which different airflow volumes are passed by the first and second panel duct doors.

A vehicle includes: a plurality of electronic devices each configured to adjust an angle of a part thereof, disposed at different positions and configured to perform the same function a touch screen having a plurality of touch areas for receiving operation commands of the plurality of electronic devices, respectively, configured to display a plurality of display areas respectively corresponding to the plurality of touch areas; and a controller configured to recognize the touch areas and touch gestures based on a touch signal received by the touch screen, to identify the electronic device corresponding to the recognized touch area, to identify operation information corresponding to the recognized touch gesture, and to control the identified electronic device based on the identified operation information. The plurality of electronic devices includes at least one of a plurality of vents, a plurality of lighting devices, and a plurality of sound output devices.

An air outlet, in particular for heaters or air conditioning units for recreational vehicles like campers or caravans, having a main housing, a flap suitable to seal the air flow channel in the main housing and a coupling mechanism. The main housing forms an air flow channel and the coupling mechanism couples the flap to the main housing in a movable manner such that the flap can be moved with respect to the main housing between a closed state, in which the flap seals the air flow channel, and an opened state, in which the flap does not seal the air flow channel. The coupling mechanism is configured such that the flap conducts a rotating and sliding movement with respect to the main housing when being moved between the closed state and the opened state.

According to the present invention, a wind direction control device is provided. The wind direction control device comprises a detector configured to detect a hand; a wind direction adjustment unit configured to adjust an air blowing direction of an air conditioner; and a controller configured to control the wind direction adjustment unit so that a direction of the hand detected by the detector is set as the air blowing direction.

An assembly for introducing air into a passenger compartment of a vehicle is provided. The assembly includes at least three mutually spaced air channels which can be provided with air and each of which has an air outlet. Each air channel is fluidly communicatively connected to the passenger compartment via the air outlets, and an open jet can exit from the outlet. The assembly also includes at least one controller, with which a mass flow of an air flow in each air channel can be controlled. The air outlets are designed and oriented relative to one another such that open jets exiting simultaneously from at least two air outlets can be mixed together in the passenger compartment so as to form a single total air flow. To provide an improved possibility of introducing air into a passenger compartment of a vehicle, the controller is designed to control the mass flow of the air flow in each air channel such that a main flow direction of the total air flow can be spatially varied.