Abstract: Vehicle glass has a three-dimensional pattern and includes a pattern layer printed on a glass substrate to implement a plurality of shaded portions. The vehicle glass also has a metallic coating layer stacked on the pattern layer to be exposed from the glass substrate through the shaded portions. The pattern layer is divided into a first region and a second region to implement the shaded portions. The pattern layer realizes a difference in shade between the first region and the second region.

Abstract: A quarter glass assembly for a vehicle includes a glass window and a plastic glass disposed adjacent to the glass window and forming, with the glass window, a partitioned quarter glass. The assembly includes decorative members integrally provided to cover edges of one side and an opposite side of the plastic glass and provided vertically with respect to the front of the quarter glass, a main trim piece provided to surround a rim of the glass window and upper and lower portions of the plastic glass, and a molding member provided to integrate the glass window and the plastic glass by including the decorative members and the main trim piece.

Abstract: Disclosed is an external image display device for vehicles, including a mounting unit having one surface exposed outside a vehicle, a housing configured to be selectively rotated by driving of a driving unit coupled to the mounting unit to expose a monitoring area outside the mounting unit, and a camera module mounted in a mounting area provided in the housing to be separated from the driving unit and configured to be selectively changed from a stowed state to an exposed state by rotation of the housing to monitor the area surrounding the vehicle.

Abstract: A camera monitor system includes: a panel disposed outside a vehicle, a fixing part fixed to an inner side of the panel, a camera assembly disposed at the fixing part and selectively accommodated in an opening of the panel, and a link unit coupled to the fixing part to transmit driving force of a driving unit to the camera assembly so that the camera assembly selectively protrudes to the outside of the panel.

Abstract: A smart glass transmittance control system includes: a smart glass that decreases transmittance of the smart glass in response to the quantity of light introduced and increases the transmittance of the smart glass when electric power is applied; a power supply unit to supply the electric power to the smart glass; a control unit to control supply of the electric power from the power supply unit to the smart glass in order to control the transmittance of the smart glass according to a user request. In particular, the control unit controls the supply of the electric power from the power supply unit to the smart glass based on the driving environment of a vehicle, the quantity of light from an external light source, or the driving environment condition of the smart glass.

Abstract: Disclosed is a glass for vehicles. The glass for vehicles includes a first glass panel, a second glass panel spaced apart from the first glass panel while maintaining a regular distance from the first glass panel, bonding films located between the first glass panel and the second glass panel, and a high refractive film located between the bonding films. The high refractive film is configured to have a wedge angle of 0.0028 rad to 0.0042 rad in the longitudinal section thereof.

Abstract: A system for driving a digital side mirror for vehicles, includes a moving case accommodating a camera for photographing the area surrounding the rear and the sides of a vehicle which is mounted in a housing and in a guide pipe mounted to a vehicle panel to be movable forwards and backwards thereof, wherein the camera accommodated in the moving case is controlled to photograph the area surrounding the rear and the sides of the vehicle even when the moving case is moved backwards and received in the housing and the guide pipe, facilitating a user to easily monitor the area surrounding the rear and the sides before turning on the vehicle or after turning off the vehicle.

Abstract: A washer fluid distribution device includes a plurality of nozzle units formed consecutively, a transfer conduit configured to pass through the plurality of nozzle units and having one end fluidly connected to an introduction part, the introduction part located at one end of the transfer conduit and configured to allow a washer fluid to be introduced from a washer pump, a plurality of discharge holes configured to correspond to the number of the nozzle units in the transfer conduit and having different angles based on a center of the transfer conduit, and a controller configured to control a rotation angle of the transfer conduit to allow the discharge holes to correspond to the nozzle units in response to a user's request.

Abstract: A structure of a quadrant cover of a vehicle includes an A-pillar positioned without a step difference with a windshield glass, a quadrant cover adjacent to the A-pillar and fixed to a front door, and a rain gutter positioned on the quadrant cover. The rain gutter includes a first rain gutter positioned adjacent to the A-pillar and a second rain gutter positioned to be spaced apart from the A-pillar.

Abstract: A laminated glass antenna structure includes: a lower glass sheet including a first surface facing inside and a second surface at the upper end thereof; an upper glass sheet including a third surface adjacent to the lower glass sheet; an adhesive film positioned between the upper glass sheet and the lower glass sheet; and an antenna unit including a plurality of microstrip patch unit cells provided on the second surface and the third surface with respect to a ground plane provided on the first surface.

Abstract: A vehicle front pillar has a side outer panel located on a side of a vehicle and a side outer inner panel spaced apart from the side outer panel by a predetermined space. A reinforcing member is located between the side outer panel and the side outer inner panel. A windshield is located to surround at least a portion of an outer portion of the reinforcing member. A fastening unit is located between a distal end of the side outer panel and the windshield.

Abstract: A nozzle system includes a head part having a spray part formed at a location corresponding to a sensor part and a body part having a portion of the head part inserted thereinto and located therein. The body part includes an inlet part configured to allow fluid to flow into the body part therethrough. The nozzle system includes a delay part insertable into at least the portion of the head part and located in the body part. The delay part protrudes in a movement direction of the head part. The fluid flows into the body part and the head part is moved along the delay part and the fluid is sprayed out of the spray part of the head part when the head part is located at and clear of an end of the delay part.

Abstract: A nozzle system includes: a nozzle housing configured to allow fluid flowing from a reservoir located in a vehicle body to flow thereinto; a nozzle cover located at an upper end of the nozzle housing and configured to form a flow path for the fluid flowing into the nozzle housing; and at least two or more nozzle chips configured to face a sensor part. Each of the nozzle chips is detachably coupled to a corresponding opening located in the nozzle cover. The nozzle chips includes two or more discharge ports having different spray angles, where the fluid is sprayed to an area of the sensor part at each of the spray angles through each of the discharge ports.

Abstract: The present disclosure provides a glass antenna structure including: a glass sheet provided in a vehicle; a monopole antenna unit located on one surface of the glass sheet; a plurality of rectangular patch planes located on another surface of the glass sheet at a position corresponding to the monopole antenna unit; and a co-planar waveguide (CPW) feeding line in contact with one end of the monopole antenna unit.

Abstract: A sensor cleaning system includes: a sensor unit configured to monitor an external environment of a vehicle; a cover lens configured to cover a measurement region of the sensor unit; an outer cleaner configured to selectively come in contact with the cover lens; and a transmission unit configured to transmit a driving force of a driving unit to the outer cleaner. The sensor cleaning system also includes a control unit configured to adjust a position of the outer cleaner such that the outer cleaner selectively comes in contact with the cover lens by the driving force of the driving unit, and to move the cover lens up and down.

Abstract: An exterior camera system and a cleaning method thereof are provided. The exterior camera system includes a base unit that is fixed to a vehicle, a housing rotatably coupled with the base unit, and an imaging device including a camera module and having at least a portion inserted into the housing to move in a longitudinal direction of the housing. A wiper is disposed on an inside surface of the housing to face the camera module, and a washer fluid nozzle is disposed adjacent to the wiper. A controller receives a video from the camera module to set a rotation angle of the housing based upon driving conditions of the vehicle and to adjust extension of the imaging device.

Abstract: An apparatus for cleaning a sensor includes: a sensor that is positioned in a vehicle; a sensor bearing unit that is positioned on a vehicle body adjacent to the sensor, and at least one nozzle assembly that is positioned in the sensor bearing unit. The at least one nozzle assembly stands up by a hydraulic pressure of inflowing washer fluid. The apparatus also includes: a washer fluid passage that is in fluid connection with the nozzle assembly and through which washer fluid flows; and a motor unit that is configured to apply a driving force so that the sensor bearing unit rotates based on the sensor.

Abstract: A glass plate according to the present disclosure includes: a coated area and an uncoated area; a heating layer that is coated on the coated area and includes a conductive material generating heat by receiving power; and two bus bars that extend along an extension direction, that are electrically connected to the heating layer to supply the power to the heating layer, and that are spaced apart from each other along a reference direction orthogonal to the extension direction. The uncoated area includes a plurality of uncoated lines having a length along the reference direction and formed as a single line bent at least once. The plurality of uncoated lines is disposed to be spaced apart along the extension direction.

Abstract: A method of controlling cleaning of a sensor unit, includes determining, by a controller, whether autonomous driving is possible, determining, by a measurement unit, whether a vehicle is in a rainy environment, determining, by the controller, priorities of a plurality of sensor units according to a driving environment of the vehicle during the autonomous driving of the vehicle, setting, by the controller, the priorities of the sensor units according to the rainy environment and the driving environment of the vehicle, and pressure of air according to the driving environment, and setting a cleaning mode for determining air sprayed to each of the sensor units, and spraying air stored in an air tank to the sensor units according to the set cleaning mode.

Abstract: A sensor cleaning apparatus for a vehicle includes: a sensor housing in which a driver and a sensor are mounted, a cover part configured to rotate and exposed to the outside of the sensor housing through an open region formed on a front surface of the sensor housing, and a blade part connected to the cover part. The blade is rotated as the driver is driven and provided to allow air generated by its rotation to flow toward a front surface and a rear surface of the cover.