The present invention relates to an air conditioner for a vehicle, which can remarkably improve resistance against an air flow in an air passageway, thereby enhancing efficiency. The air conditioner for a vehicle includes: a case having an air inlet, an air outlet, and an air passageway formed therein; a blower unit for blowing air to the air inlet; and a cooling means and a heating means disposed in the air passageway of the case in an air flow direction in order, wherein the air outlet of the case includes a floor outlet and vent outlets, the floor outlet and the vent outlets are arranged below the heating means in a height direction, and the floor outlet is arranged within a range of the width of the heating means.

Method and system are provided for a quick connector for coupling conduits. The quick connector comprises a first piece including a first slot group, a second piece including a second slot group and a first protrusion group counterpart to the first slot group, and a third piece including a second protrusion group counterpart to the second slot group, where each slot of the first slot group angles in a first direction, and each slot of the second slot group angles in an opposing, second direction. In one example, the quick connector may include a locking mechanism and a feedback system.

A vehicle air-conditioning device comprises: a case inside of which a passage for air is formed, the case having an outside-air introducing port and an air discharge port, the outside-air introducing port opening on the vehicle front side and being capable of introducing air from outside a vehicle (the outside air), and the air discharge port being capable of discharging the introduced air to air the front side; a filter portion inside of which the air can pass through, the filter portion being arranged on the upstream side of the air discharge port; and an air blower capable of sucking the air introduced into the passage, the air blower being arranged on the downstream side of the filter portion. The passage is formed to be bent such that the angle θ between an opening face of the outside-air introducing port and an upstream surface of the filter portion is an obtuse angle. The case has a guide portion, the guide portion being configured to rectify a part of the air on the upstream side of the filter portion in the passage such that the air is directed towards the vehicle front side, and the guide portion being configured to guide the air to the filter portion.

An air vent device for a vehicle may be mounted with an upper rear wing and a lower rear wing within an air duct to be linearly movable along the front-rear direction, and be rotatably mounted with an upper air guide wing and a lower air guide wing at the front end portions of the upper rear wing and the lower rear wing, thereby controlling the wind direction of the air downward while the upper air guide wing rotates downward when the upper rear wing moves forward, or controlling the wind direction of the air upward while the lower air guide wing rotates upward when the lower rear wing moves forward.

Described herein are noise attenuating ducts and vehicles using these ducts for environmental control systems. A duct comprises an exoskeleton structure and a sound-absorbing structure, disposed within and conforming to the exoskeleton structure. The exoskeleton structure provides external mechanical support to the sound-absorbing structure thereby helping to maintain the tubular shape of the sound-absorbing structure. This external support does not interfere with the airflow inside the sound-absorbing structure. Furthermore, the external positioning of the exoskeleton structure allows the integration of various support mounting features for the installation of the duct in a vehicle. In some examples, the exoskeleton structure comprises a plurality of enclosed openings to reduce the weight of the exoskeleton structure and provide additional flexibility. Furthermore, additive manufacturing of the exoskeleton structure allows achieving a monolithic structure with various features and characteristics described above.

A vehicle has a storage bin positioned between the seat and the rear wall of an interior compartment. The storage bin includes a receiving portion and louvered portion. The receiving portion is defined by a peripheral wall and a bottom. The louvered portion is coupled with the receiving portion. The louvered portion includes at least one window. An air flow path is defined by the storage bin. The air flow path enables air to pass into and through the at least one window under the receiving portion bottom and out through an exhaust vent in the rear wall.

A reference microphone for detecting noise is located under a first duct. The noise is in the form of a first plane wave in the first duct. A speaker is located on a top of the first duct. Connected to an upper part of the first duct is a second duct including an error microphone. The first plane wave in the first duct passes through an acoustic path and reaches the second duct. The error microphone detects the sound, and the speaker outputs a second plane wave with an opposite phase for canceling the first plane wave.

The invention concerns a control module (15) of a blower for a heating and/or ventilation and/or air conditioning device, in particular for a motor vehicle, the blower being configured to generate an airflow, and the control module (15) being configured to control the blower and comprises a heat sink (157), a heat dissipation base (158) and at least one active power electronic component (153) mounted on the heat dissipation base (158). According to the invention, the heat sink (157) comprises a housing (156) for receiving at least a part of the heat dissipation base (158). The heat sink base (158) is mounted by press-fitting into said housing (156). The invention also relates to a corresponding heating and/or ventilation and/or air conditioning device.

The present invention relates to an air conditioner for a vehicle, which can send air-conditioned air toward a rear seat of the vehicle in order to perform air-conditioning of a front seat of the vehicle and air-conditioning of a rear seat. The air conditioner includes an air passageway formed in an air-conditioning case, wherein the air passageway includes: a rear seat cold air passageway which is a passageway that the air passed through the heat exchanger for cooling bypasses the heat exchanger for heating and flows toward a rear seat of the vehicle; and a warm air passageway which is a passageway that the air passed through the heat exchanger for cooling passes through the heat exchanger for heating and flows toward a front seat or the rear seat of the vehicle. The air conditioner includes a rear seat temperature adjusting door for controlling an amount of air flowing from the warm air passageway to the rear seat air outlet and an amount of air flowing from the rear seat cold air passageway to the rear seat air outlet.

A vehicle includes a front-row occupant support and a rear-row occupant support. The front-row occupant support includes a climate-control system arranged in the front-row occupant support. The climate control system is configured to provide a conditioned airflow moving from the front-row occupant support toward a rear-row occupant region between the front-row occupant support and the rear-row occupant support.