Abstract: An air flap apparatus for a vehicle includes a frame disposed behind a grille of a vehicle, the frame including an air inlet, an air flap including a first main body for opening and closing the air inlet, links disposed at both sides of the air flap and coupled to the air flap; and a loader connected to the air flap through the links. The air flap is disposed at a position where the air flap is rotated to open the air inlet when moved along the links and coupled to the loader, or at a position where the air flap is rotated to close the air inlet when moved along the links and decoupled from the loader.

Abstract: The present disclosure relates to an air flap apparatus for a vehicle, which is improved to prevent an air flap from being rotated by a traveling wind generated when the vehicle travels at a high speed. The air flap apparatus for a vehicle includes a frame disposed behind a grill of a vehicle, an air flap that opens or closes an air inlet formed in the frame, a power transmission unit that is connected to the air flap and rotates the air flap, and a driving unit that is disposed outside the frame and generates power, wherein the power transmission unit includes a link that is connected to the air flap and rotates the air flap, and a loader that is connected to the driving unit, is rotated by the power generate by the driving unit, and stops movement of the link when the air flap closes the air inlet.

Abstract: A method for measuring displacements of an end effector passing through a load lock gate of semiconductor equipment according to an embodiment of the present disclosure includes measuring a first displacement in a vertical direction and a second displacement in a horizontal direction of the end effector while the end effector passes through the load lock gate, calculating changes in pitch and roll of the end effector based on the measured first displacement, and calculating a change in yaw of the end effector based on the measured second displacement.

Abstract: A touch screen panel including a substrate having an effective area and a pad area, sensing electrodes disposed in the effective area, pads disposed in the pad area, wirings connecting the sensing electrodes and the pads, respectively, the wirings each having different lengths, and an electrostatic dispersion pad disposed adjacent to a sensing electrode disposed closest to the pad area among the sensing electrodes.

Abstract: A touch screen panel including a substrate having an effective area and a pad area, sensing electrodes disposed in the effective area, pads disposed in the pad area, wirings connecting the sensing electrodes and the pads, respectively, the wirings each having different lengths, and an electrostatic dispersion pad disposed adjacent to a sensing electrode disposed closest to the pad area among the sensing electrodes.

Abstract: A method for determining the status of a robot according to an embodiment includes acquiring first data and second data related to an operation of the robot, acquiring a resonance frequency by analyzing the operation of the robot in a frequency region based on the first data related to the operation of the robot, acquiring a first comparison result by comparing the acquired resonance frequency with a reference resonance frequency, when the first comparison result is a threshold value or more, generating a Lissajous figure by DQ transforming a three-phase signal based on the second data related to the operation of the robot, acquiring a second comparison result by comparing the generated Lissajous figure with a reference Lissajous figure, and determining the status of the robot based on at least one of the first comparison result and the second comparison result.

Abstract: A method for determining the status of a robot according to an embodiment includes acquiring first data and second data related to an operation of the robot, acquiring a resonance frequency by analyzing the operation of the robot in a frequency region based on the first data related to the operation of the robot, acquiring a first comparison result by comparing the acquired resonance frequency with a reference resonance frequency, when the first comparison result is a threshold value or more, generating a Lissajous figure by DQ transforming a three-phase signal based on the second data related to the operation of the robot, acquiring a second comparison result by comparing the generated Lissajous figure with a reference Lissajous figure, and determining the status of the robot based on at least one of the first comparison result and the second comparison result.

Abstract: A method for measuring displacements of an end effector passing through a load lock gate of semiconductor equipment according to an embodiment of the present disclosure includes measuring a first displacement in a vertical direction and a second displacement in a horizontal direction of the end effector while the end effector passes through the load lock gate, calculating changes in pitch and roll of the end effector based on the measured first displacement, and calculating a change in yaw of the end effector based on the measured second displacement.

Abstract: A sensor substrate includes a base substrate, a black matrix pattern, a sensing electrode pattern, a driving electrode pattern, and at least one bridge line. The black matrix pattern is disposed on the base substrate and divides the base substrate into a light transmission area and a light blocking area. The sensing electrode pattern includes a plurality of first unit patterns arranged in association with a first direction. The driving electrode pattern includes a plurality of second unit patterns arranged in association with a second direction and disposed adjacent to the plurality of first unit patterns. The at least one bridge line is connected between at least two of the plurality of first unit patterns or between at least two of the plurality of second unit patterns.

Abstract: A touch screen panel including a substrate having an effective area and a pad area, sensing electrodes disposed in the effective area, pads disposed in the pad area, wirings connecting the sensing electrodes and the pads, respectively, the wirings each having different lengths, and an electrostatic dispersion pad disposed adjacent to a sensing electrode disposed closest to the pad area among the sensing electrodes.

Abstract: A touch screen panel includes a substrate including an effective area and an opaque layer disposed outside the effective area, sensing electrodes disposed in the effective area, pads disposed on the opaque layer, and wirings connecting the sensing electrodes to the pads, respectively, in which the wirings each have different lengths, and a first wiring having the shortest length among the wirings includes an extension, the extension covering a side of the opaque layer.

Abstract: Disclosed herein is an actuator for an active air flap apparatus which may manually open air flaps during an actuator failure and may prevent the opened air flaps from closing using e.g., vehicle induced wind. The apparatus includes a worm gear that is driven by the power of a motor and a spur gear that is configured to transmit rotary force of the worm gear towards the air flaps.

Abstract: A sensor substrate includes a base substrate, a black matrix pattern, a sensing electrode pattern, a driving electrode pattern, and at least one bridge line. The black matrix pattern is disposed on the base substrate and divides the base substrate into a light transmission area and a light blocking area. The sensing electrode pattern includes a plurality of first unit patterns arranged in association with a first direction. The driving electrode pattern includes a plurality of second unit patterns arranged in association with a second direction and disposed adjacent to the plurality of first unit patterns. The at least one bridge line is connected between at least two of the plurality of first unit patterns or between at least two of the plurality of second unit patterns.

Abstract: A sensor substrate includes a base substrate, a black matrix pattern, a sensing electrode pattern, a driving electrode pattern, and at least one bridge line. The black matrix pattern is disposed on the base substrate and divides the base substrate into a light transmission area and a light blocking area. The sensing electrode pattern includes a plurality of first unit patterns arranged in association with a first direction. The driving electrode pattern includes a plurality of second unit patterns arranged in association with a second direction and disposed adjacent to the plurality of first unit patterns. The at least one bridge line is connected between at least two of the plurality of first unit patterns or between at least two of the plurality of second unit patterns.

Abstract: Disclosed is an air flap device for a vehicle which includes left and right flap units which are formed of a combination of a plurality of opposite flaps rotatably installed at left and right sides, wherein the left and right flap units are obliquely installed facing each other in such a way that the opposite side ends thereof protrude forward; a link which interconnects the other side ends of the plurality of flaps of the outer sides of the left and right flap units; and a driving force transfer unit which is installed between the left and right flap units and interconnects a predetermined pair of opposite left and right flaps of the left and right flap units.

Abstract: A display device includes: a first substrate; a plurality of pixel electrodes disposed on the first substrate; a common electrode including a plurality of common electrode plates disposed on the first substrate, where the common electrode plates cover the pixel electrodes and are arranged substantially in a matrix form; and a plurality of common electrode line groups which applies a common voltage to the common electrode plates, in which laterally adjacent common electrode plates of the common electrode plates are connected to different common electrode line groups.

Abstract: A touch sensing display device includes: a display panel; a capacitive touch panel disposed on a front surface of the display panel; a digitizer disposed on a surface of the display panel; a sensor driving unit which sequentially applies scanning signals to the capacitive touch panel and the digitizer, where each of the scanning signal is applied simultaneously to the capacitive touch panel and the digitizer; and a sensing unit which senses sensing signals of the capacitive touch panel and the digitizer, in which the sensing unit receives the sensing signal of the capacitive touch panel and the sensing signal of the digitizer at different times.

Abstract: A touch screen panel includes a substrate including an effective area and an opaque layer disposed outside the effective area, sensing electrodes disposed in the effective area, pads disposed on the opaque layer, and wirings connecting the sensing electrodes to the pads, respectively, in which the wirings each have different lengths, and a first wiring having the shortest length among the wirings includes an extension, the extension covering a side of the opaque layer.

Abstract: A touch panel includes: a substrate including a first sensing area, a second sensing area, and a non-sensing area located therebetween; a plurality of first and second sensing electrodes located on the first sensing area and the second sensing area, respectively; a first boundary sensing electrode located at a boundary between the first sensing area and the non-sensing area; a plurality of first wiring lines partially located on the first sensing area and connected to the first sensing electrodes; a plurality of second wiring lines partially located on the second sensing area and connected to the second sensing electrodes; a first touch controller electrically connected to the first sensing electrodes by the first wiring lines; a second touch controller electrically connected to the second sensing electrodes by the second wiring lines; and a third wiring line electrically connected to the first boundary sensing electrode and the second touch controller.

Abstract: A touch sensor substrate includes a base substrate, a first touch sensor part that is disposed on the base substrate and includes a plurality of sensing circuits configured to sense a touch in an electromagnetic induction mode and a second touch sensor part that is disposed on the base substrate, is electrically insulated to the first touch sensor part, and comprises a plurality of sensing electrodes configured to sense a touch in a self capacitance mode.