Abstract: A vehicle air conditioning system is provided and includes a heating duct through which internal air and external air are introduced and a cooling duct through which internal air and external air are introduced. A condenser is disposed in the heating duct and an evaporator is disposed in the cooling duct and is connected to the condenser. A phase change material (PCM) stores thermal energy of the internal air passing through the heating and cooling ducts. An internal/external air door controls the mixing of the internal/external air introduced into the heating and cooling ducts, and a PMC door controls the external air introduced through the heating and cooling ducts whether to pass through the PCM.

Abstract: An air conditioning system provides inside air conditioning and performs the function of cleaning the inside air, so that the inside air is maintained to be pleasant. The air cleaning time of cleaning the inside air is decreased, so the possibility of moisture generated on an inside window due to the air cleaning is reduced.

Abstract: A heating, ventilation, and air conditioning (HVAC) system of a vehicle increases air-conditioning efficiency by inhibiting a waste of cooling/heating energy by individually performing air-conditioning for seats, depending on whether there are passengers sitting in the seats and then increases the range of an electric vehicle due to the increase in air-conditioning efficiency.

Abstract: An energy harvesting system based on reverse electro wetting on a dielectric includes: a dielectric material layer molded with a dielectric material in a panel shape and including an upper end and a lower end; and an electrode layer including a plurality of electrodes coupled to a lower surface of the dielectric material layer. In particular, the upper end of the dielectric material layer is located higher than the lower end and allows a liquid drop to flow from the upper end to the lower end, and the dielectric material layer generates dielectric polarization in the dielectric material layer and continuously varies a flow rate of the liquid drop between the upper end and the lower end of the dielectric material layer. The plurality of electrodes are disposed to be spaced apart from one another in a direction from the upper end to the lower end.

Abstract: A heating, ventilating, and air conditioning (HVAC) system of a vehicle is provided. The system replaces a cooling water circuit having a complex configuration and a separate heat pump system for recovering waste heat of an electric vehicle by changing an air flow path for supplying heating and cooling air and secures an indoor space by disposing an HVAC in an engine room.

Abstract: An air conditioning unit for a vehicle includes a first channel and a second channel, a blowing unit including a first blower fan and a second blower fan that rotate together by sharing a rotary shaft and a driving unit, a bypass channel, and a control door disposed among the outlets of the first channel and the second channel, the heating core, and the bypass channel to control air discharged from the first channel or the second channel to pass through the heating core or not to pass through the heating core through the bypass channel.

Abstract: An air conditioning unit for a vehicle includes: a first channel having a first inlet and a first outlet, and having a first blower fan and a heating core therein; a second channel having a second inlet and a second outlet, and having a second blower fan and a cooling core therein; a bypass channel diverging from the second outlet of the second channel and connected with the first inlet of the first channel; and a control door disposed between the bypass channel and the first channel and selectively closing the bypass channel or the first inlet such that the first channel and the second channel are disconnected when the bypass channel is closed, and interior air is introduced through the second inlet and the second outlet and then discharged to the exterior through the first outlet when the first inlet is closed.

Abstract: An apparatus and a method for measuring interior temperature of a vehicle, the apparatus includes a base substrate provided inside an interior panel of the vehicle and a housing including an infrared ray blocking material for inhibiting temperature of an inner space from being increased. The housing includes an exposed part provided in one side of the housing and exposed to an interior space of the vehicle, and an opening on a side portion of the exposed part for allowing the inner space of the housing to communicate with the interior space through the opening. The apparatus further includes a non-contact sensor provided on the inner space of the housing for measuring temperatures of the exposed part and the opening, and a controller calculating temperature of the interior space of the vehicle with the measured values by the non-contact sensor.

Abstract: A heat-loss management system for a vehicle and a control method thereof, which are capable of identifying a heat-insulation degree at a specific point in the vehicle so as to maintain or repair the heat-insulation performance of the vehicle.

Abstract: An apparatus for improving vehicle indoor air quality, may include a controller configured to correct and verify air dust concentration data; determine dust concentration outside a vehicle based on the verified data; and control an operation mode of an air conditioning device according to the determination; and the air conditioning device, wherein an operation of an intake door configured to control an introduction of outdoor air into the vehicle is controlled in response to signals of the controller.

Abstract: An air conditioning system for a vehicle and a control method thereof may include a temperature detector; an air conditioning actuator including a cooling device and a blower; and a controller connected to the temperature detector and the air conditioning actuator and including: a load determination portion determining an air conditioning load based on factors including an internal temperature or an external temperature of a vehicle detected by the temperature detector; a storage portion storing a control map that controls the air conditioning actuator according to the air conditioning load; and an update portion updating a control value, pre-stored in the control map, of the air conditioning actuator for the air conditioning load to a demand value of a user when receiving the demand value of the user for the air conditioning actuator.

Abstract: A front vehicle body structure for a vehicle defining a space which is distinguished from a passenger compartment by a dash panel between front side members disposed along a longitudinal direction of the vehicle. The front vehicle body structure includes: a front shock absorber housing in which a front shock absorber of a front wheel suspension of the vehicle is disposed; a cowl top outer panel connected with lower end portions of front pillars of the vehicle; and a cowl upper cross member disposed below the cowl top outer panel and having a front end portion attached to the front shock absorber housing and a rear end portion attached to the cowl top outer panel.

Abstract: An apparatus for improving vehicle internal air may include an air conditioner including an intake door for controlling introduction of external air into a vehicle; an electric dust collection filter to collect fine dust contained in air; and a control device to control operation of the electric dust collection filter and the intake door, based on information about a concentration of fine dust inside the vehicle, a concentration of fine dust outside the vehicle, and a vehicle speed.

Abstract: An air conditioning unit for a vehicle includes a first channel and a second channel, a blowing unit including a first blower fan and a second blower fan that rotate together by sharing a rotary shaft and a driving unit, a bypass channel, and a control door disposed among the outlets of the first channel and the second channel, the heating core, and the bypass channel to control air discharged from the first channel or the second channel to pass through the heating core or not to pass through the heating core through the bypass channel.

Abstract: An energy harvesting system based on reverse electro wetting on a dielectric includes: a dielectric material layer molded with a dielectric material in a panel shape and including an upper end and a lower end; and an electrode layer including a plurality of electrodes coupled to a lower surface of the dielectric material layer. In particular, the upper end of the dielectric material layer is located higher than the lower end and allows a liquid drop to flow from the upper end to the lower end, and the dielectric material layer generates dielectric polarization in the dielectric material layer and continuously varies a flow rate of the liquid drop between the upper end and the lower end of the dielectric material layer. The plurality of electrodes are disposed to be spaced apart from one another in a direction from the upper end to the lower end.

Abstract: An air ventilation device of a vehicle includes: a housing including an air inlet and an air outlet and a cooling core and a heating core disposed between the air inlet and the air outlet; a rear extending flow path extending to the rear of the vehicle, and having a first end connected to the air outlet of the housing and a second end connected to a back seat air vent disposed to face a back seat space; an air collecting flow path directly connecting the rear extending flow path and the air inlet of the housing; and an opening and closing door structure opening and closing air circulation between the rear extending flow path and the air outlet and air circulation between the air collecting flow path and the air inlet.

Abstract: The present disclosure relates to an interior temperature sensor for a vehicle. The sensor includes a sensor casing disposed to expose a sensing surface to a space that is the subject of temperature measurement, a substrate extending in a direction from an inside of the sensing surface toward an outside while at least a part of the substrate bisects an inside of the sensor casing into upper and lower sections, an upper temperature sensing element provided on an upper surface of the substrate at a position inside the sensor casing, a lower temperature sensing element provided on a lower surface of the substrate at a position inside the sensor casing, and a compensation temperature sensing element provided on the substrate to be placed outside the sensor casing. Furthermore, a microcomputer determines an interior temperature of the vehicle based on the measured values.

Abstract: An apparatus and a method for measuring interior temperature of a vehicle, the apparatus includes a base substrate provided inside an interior panel of the vehicle and a housing including an infrared ray blocking material for inhibiting temperature of an inner space from being increased. The housing includes an exposed part provided in one side of the housing and exposed to an interior space of the vehicle, and an opening on a side portion of the exposed part for allowing the inner space of the housing to communicate with the interior space through the opening. The apparatus further includes a non-contact sensor provided on the inner space of the housing for measuring temperatures of the exposed part and the opening, and a controller calculating temperature of the interior space of the vehicle with the measured values by the non-contact sensor.

Abstract: An electric heater for a vehicle includes a heat dissipation fin for heat-exchange with air, a ceramic element to emit heat by receiving a power-supply voltage, and a housing to support the heat dissipation fin and the ceramic element. The ceramic element includes a first positive temperature coefficient (PTC) element, and a second PTC element having a heating power greater than a heating power of the first PTC element.

Abstract: An air-conditioning system for a vehicle is provided. The system includes a heating blower and a cooling blower that are disposed on opposite sides with an adjustment space being interposed there between. A first duct and a second duct transfer outside air or inside air and extend in the axial direction of the heating blower and the cooling blower. An inlet door unit is disposed in the adjustment space and adjusts the air introduced from the first duct or the second duct to be selectively supplied to the heating blower or the cooling blower. A condenser and an evaporation core are respectively disposed in the radial directions of the heating blower and the cooling blower and are connected via a refrigerant line. An outlet door unit regulates the air to be selectively discharged to the indoor space or the outdoor space.