Abstract: A blower motor of a heating, ventilating and air conditioning (HVAC) system for a vehicle includes: a base including an introduction path to introduce air into the base and a substrate having a plurality of elements attached to the substrate, and a heat sink formed to have a plate shape in surface contact with one surface of the substrate and having a contact surface contacting the air introduced through the introduction path and configured to guide the introduced air to heat generation parts formed on the contact surface.

Abstract: An automatic dust removal device for a vehicle is provided. The device constantly senses dust in the interior of the vehicle and automatically removes the detected dust. The device includes a dust sensor that senses dust concentration in the interior of the vehicle and a controller that operates an air-conditioning device. The controller determines whether dust in the interior of the vehicle requires removal based on a signal from the dust sensor. An air-conditioning device for removing dust from the air is operated to activate a dust removal mode based on a signal from the controller. Thus, an intake door is closed to block inflow of external air into the interior of the vehicle and the air in the interior of the vehicle passes through an air filter and is circulated by a blower.

Abstract: An automobile ventilation method may include detecting a first carbon dioxide level inside a vehicle, detecting a current vehicle speed when the first carbon dioxide level is greater than a predetermined set level, and performing forced outdoor air switching when the current vehicle speed is greater than a predetermined set vehicle speed, and detecting a second carbon dioxide level inside the vehicle and activating a blower or increasing airflow when the second carbon dioxide level detected inside the vehicle exceeds a predetermined maximum allowable level, which is greater than the predetermined set level.

Abstract: An air-conditioner for a vehicle may include a casing including an internal space therein, wherein the internal space communicates with an upper outlet formed in a side of the casing, an evaporator and a heating member installed in the casing, a partition wall partitioning a portion of the internal space behind the heating member into an upper space and a lower space, wherein the upper space includes at least a floor duct inlet and the lower space receives the heating member therein to form an upward flowing path which guides air from the heating member toward the upper outlet, a floor duct coupled to the upper space to communicate the at least a floor duct inlet with the outside, and a floor door installed in the casing to selectively open the upper space and/or a flowing path fluid-connecting the evaporator and the heating member to the upper outlet.

Abstract: A system for preventing inflow of exhaust gas for a vehicle, may include an inside/outside air door provided in an air conditioning device of the vehicle and controlling an amount of outside air introduced into an inside of the vehicle, an outside-air temperature sensor measuring a temperature of the outside air of the vehicle, a temperature control door disposed inside the air conditioning device of the vehicle and controlling a temperature of air discharged to the inside of the vehicle, and a control unit controlling the inside/outside air door to cause an amount of the outside air to be introduced to the inside when a vehicle speed may be equal to or larger than a predetermined speed, wherein the control unit controls the temperature control door to control the temperature of the air discharged to the inside when the temperature of the outside air deviates from a predetermined temperature range.

Abstract: An intake structure of external air for a vehicle may include a car body panel connected to a cowl top cover at an upper end thereof, wherein an external air intake space may be formed in a width direction of the vehicle between the car body panel and the cowl top cover, and wherein the car body panel guides the external air flowing into the external air intake space from the cowl top cover to an interior of the vehicle, a separator covering an engine to form an engine compartment therein, wherein the separator has a center portion blocking a front of the external air intake space from the engine compartment, and a shield panel that may be connected to the separator to block the engine compartment from the external air intake space together with the separator.

Abstract: A structure for exchanging an air filter for a vehicle, may include the air filter accommodated in an air conditioning device, and a glove box housing provided on a dashboard and having an accommodation space formed therein, wherein the air filter exchanging portion may be formed on the glove box housing inside thereof to communicate with the air filter.

Abstract: An airbag door connecting structure of a passenger seat of a vehicle may include a crash pad formed with interior finishing material of a dash board extending over a front surface of a passenger seat; a housing disposed to a lower portion of the crash pad, wherein a space is defined between the housing and the crash pad in which a passenger airbag (PAB) is installed; a chute coupled to the crash pad by vibration welding outside the housing and couples the housing to the crash pad; and an airbag door disposed in the chute and covering the space of the housing, the airbag door having a hinge portion which is bent inwards so as to elastically rotate about a coupling portion of the hinge portion outwards by the passenger airbag in a crash accident of the vehicle, wherein the coupling portion is coupled to the housing and to the chute.

Abstract: An air-conditioner for a vehicle may include a casing including an internal space therein, wherein the internal space communicates with an upper outlet formed in a side of the casing, an evaporator and a heating member installed in the casing, a partition wall partitioning a portion of the internal space behind the heating member into an upper space and a lower space, wherein the upper space includes at least a floor duct inlet and the lower space receives the heating member therein to form an upward flowing path which guides air from the heating member toward the upper outlet, a floor duct coupled to the upper space to communicate the at least a floor duct inlet with the outside, and a floor door installed in the casing to selectively open the upper space and/or a flowing path fluid-connecting the evaporator and the heating member to the upper outlet.

Abstract: An airbag door connecting structure of a passenger seat of a vehicle may include a crash pad formed with interior finishing material of a dash board extending over a front surface of a passenger seat; a housing disposed to a lower portion of the crash pad, wherein a space is defined between the housing and the crash pad in which a passenger airbag (PAB) is installed; a chute coupled to the crash pad by vibration welding outside the housing and couples the housing to the crash pad; and an airbag door disposed in the chute and covering the space of the housing, the airbag door having a hinge portion which is bent inwards so as to elastically rotate about a coupling portion of the hinge portion outwards by the passenger airbag in a crash accident of the vehicle, wherein the coupling portion is coupled to the housing and to the chute.

Abstract: An automotive cooling system, which comprises a housing, a radiator unit, and a circulating fan, is disclosed. The housing has a water tank for supplying water. The radiator unit has external air radiating fins emitting heat of vaporization of the water through a flow of air introduced from outside the vehicle, and internal air radiating fins exchanging heat with air circulating through an interior of the vehicle, and is installed on the housing. The circulating fan is installed in the housing in order to circulate the air in the interior of the vehicle.

Abstract: The defroster device that is capable of reducing a resistance of air flow is provided. The defroster device comprises an air conditioning unit, a front defroster nozzle, and a side defroster nozzle. The air conditioning unit has an air outlet that is divided into at least two portions. The front defroster nozzle has a first left nozzle and a first right nozzle that have air passageways respectively communicating with the divided portion of the air outlet of the air conditioning unit, and the side defroster nozzle has a second left nozzle and a second right nozzle that have air passageways respectively communicating with the divided portion of the air outlet of the air conditioning unit.