Abstract: Embodiments relate to a self-orienting handle assembly that is oriented in a predetermined direction relative to a lid when the lid is screwed onto a container. The handle assembly includes a locking structure that locks onto a counterpart locking structure of the lid as the lid is screwed onto the container. The locking structure may include at least one of a protrusion or a notch, and the counterpart locking structure may have an inverse shape. When the lid is screwed onto the container, the locking structure engages the counterpart locking structure and cause the handle assembly to rotate with the lid. When the lid is screwed onto the container, the locking structure locks onto the counterpart locking structure, and thereby prevents the handle assembly from rotating relative to the lid.

Abstract: Embodiments relate to a container lid with vent holes that are blocked for storage but automatically unblocked when a container attached to the container lid is heated. The heating of the container lid causes the pressure to build in the container, which pushes up an upper portion of the container lid. When the upper portion of the container lid is pushed up, the vent holes are unblocked and enable air or vapor to escape through the vent holes. In this way, the container lid may seal the container during storage but enables automatic venting during the heating of the container to prevent buildup of excessive pressure within the container.

Abstract: Embodiments relate to a container lid with vent holes that are blocked for storage but automatically unblocked when a container attached to the container lid is heated. The heating of the container lid causes the pressure to build in the container, which pushes up an upper portion of the container lid. When the upper portion of the container lid is pushed up, the vent holes are unblocked and enable air or vapor to escape through the vent holes. In this way, the container lid may seal the container during storage but enables automatic venting during the heating of the container to prevent buildup of excessive pressure within the container.

Abstract: Embodiments relate to a self-orienting handle assembly that is oriented in a predetermined direction relative to a lid when the lid is screwed onto a container. The handle assembly includes a locking structure that locks onto a counterpart locking structure of the lid as the lid is screwed onto the container. The locking structure may include at least one of a protrusion or a notch, and the counterpart locking structure may have an inverse shape. When the lid is screwed onto the container, the locking structure engages the counterpart locking structure and cause the handle assembly to rotate with the lid. When the lid is screwed onto the container, the locking structure locks onto the counterpart locking structure, and thereby prevents the handle assembly from rotating relative to the lid.

Abstract: A vision based light detection and ranging (LIDAR) system captures images including a targeted object and identifies the targeted object using an object recognition model. To identify the targeted object, the vision based LIDAR system determines a type of object and pixel locations or a boundary box associated with the targeted object. Based on the identification, the vision based LIDAR system directs a tracking beam onto one or more spots on the targeted object and detects distances to the one or more spots. The vision based LIDAR system updates the identification of the targeted object based on the one or more determined distances.

Abstract: Embodiments relate to improving the adhesion between a base substrate and a resilient material layer. Plasma-enhanced chemical vapor deposition (PECVD) is performed to deposit a silicon compound layer on a base substrate. A resilient material layer is formed on the surface of the silicon compound layer. An object formed by the method may include the base substrate, a silicon compound layer on the base substrate, and the resilient material layer on a surface of the silicon compound layer. By having a silicon compound layer with a surface roughness and thickness, adhesion between the base substrate and the resilient material layer can be significantly improved.

Abstract: A vision based light detection and ranging (LIDAR) system detects motion of a targeted object using a dynamic vision sensor to locate and track the targeted object. The dynamic vision sensor identifies activity events associated with the motion of the targeted object based on changes in brightness detected at pixels of the dynamic vision sensor. Based on the identified events, the vision based LIDAR system predicts a location of the targeted object and directs a tracking beam onto one or more spots on the targeted object and determines distances to the one or more spots to track the motion of the targeted object in three dimensions.

Abstract: A vision based light detection and ranging (LIDAR) system detects motion of a targeted object using a dynamic vision sensor to locate and track the targeted object. The dynamic vision sensor identifies activity events associated with the motion of the targeted object based on changes in brightness detected at pixels of the dynamic vision sensor. Based on the identified events, the vision based LIDAR system predicts a location of the targeted object and directs a tracking beam onto one or more spots on the targeted object and determines distances to the one or more spots to track the motion of the targeted object in three dimensions.

Abstract: A vision based light detection and ranging (LIDAR) system detects motion of a targeted object using a dynamic vision sensor to locate and track the targeted object. The dynamic vision sensor identifies activity events associated with the motion of the targeted object based on changes in brightness detected at pixels of the dynamic vision sensor. Based on the identified events, the vision based LIDAR system predicts a location of the targeted object and directs a tracking beam onto one or more spots on the targeted object and determines distances to the one or more spots to track the motion of the targeted object in three dimensions.

Abstract: A vision based light detection and ranging (LIDAR) system detects motion of a targeted object using a dynamic vision sensor to locate and track the targeted object. The dynamic vision sensor identifies activity events associated with the motion of the targeted object based on changes in brightness detected at pixels of the dynamic vision sensor. Based on the identified events, the vision based LIDAR system predicts a location of the targeted object and directs a tracking beam onto one or more spots on the targeted object and determines distances to the one or more spots to track the motion of the targeted object in three dimensions.

Abstract: A transport system in a fabrication facility includes a driving unit moving along a driving rail, and a steering unit selectively contacting a steering guide rail at a branching part where the driving rail branches off. The steering unit includes horizontal steering wheels contacting a vertical guide part of the steering guide rail, and vertical steering wheels contacting a horizontal guide part of the steering guide rail.

Abstract: A vision based light detection and ranging (LIDAR) system captures images including a targeted object and identifies the targeted object using an object recognition model. To identify the targeted object, the vision based LIDAR system determines a type of object and pixel locations or a boundary box associated with the targeted object. Based on the identification, the vision based LIDAR system directs a tracking beam onto one or more spots on the targeted object and detects distances to the one or more spots. The vision based LIDAR system updates the identification of the targeted object based on the one or more determined distances.

Abstract: A vision first light detection and ranging (LIDAR) system captures an image including a targeted object and uses the image to determine a predicted location of the targeted object. Based on the predicted location, the vision first LIDAR system directs a tracking beam onto the targeted object and detects a portion of the tracking beam reflected by the targeted object. The vision first LIDAR system includes an image sensor to capture the image for predicting the location of the targeted object and includes a distance sensor to determine a distance to the targeted object using the tracking beam.

Abstract: An in-cell touch LCD in one example includes a lower array substrate; an upper array substrate having an area greater than the lower array substrate; gate and data lines and a thin film transistor on the inner surface of the upper array substrate; a planarization layer on the inner surface of the upper array substrate, and exposing a part of a drain electrode; a common electrode on the planarization layer; a passivation layer on the planarization layer and exposing the part of the drain electrode; a touch line on the passivation layer; an inter-layered insulating layer on the passivation layer, covering the touch line, and exposing the part of the drain electrode, the touch line and the common electrode; a plurality of pixel electrodes on the inter-layered insulating layer, overlapping the common electrode, and connected to the drain electrode; and a connection line connecting the touch line and the pixel electrodes.

Abstract: A display device according to an embodiment includes a substrate including a plurality of gate lines and a plurality of data lines crossing the plurality of gate lines, and a sub-pixel array structure including a sub-pixel group corresponding to the substrate. The sub-pixel group includes a first sub-pixel, a second sub-pixel in a column different from the first sub-pixel, and third sub-pixels divided in two rows and in two columns with at least one of the first sub-pixel and the second sub-pixel therebetween, wherein the first sub-pixel is in a first column, the second sub-pixel is in a third column, and the third sub-pixels are in second and fourth columns, and wherein a ratio between numbers of the first, second and third sub-pixels is 1:1:4.

Abstract: A display device according to an embodiment includes a substrate including a plurality of gate lines and a plurality of data lines crossing the plurality of gate lines, and a sub-pixel array structure including a sub-pixel group corresponding to the substrate. The sub-pixel group includes a first sub-pixel, a second sub-pixel in a column different from the first sub-pixel, and third sub-pixels divided in two rows and in two columns with at least one of the first sub-pixel and the second sub-pixel therebetween, wherein the first sub-pixel is in a first column, the second sub-pixel is in a third column, and the third sub-pixels are in second and fourth columns, and wherein a ratio between numbers of the first, second and third sub-pixels is 1:1:4.

Abstract: A road guide post includes: a supporter which is fixed to the ground by being coupled to an anchor bolt; a guide post body which has a post shape that is screw-coupled to or fitted into the supporter; reflective sheets, multiple layers of which are attached to the concave groove part of the guide post body; and a bracket which is inserted and fixed into the bottom surface of the supporter.

Abstract: An in-cell touch LCD in one example includes a lower array substrate; an upper array substrate having an area greater than the lower array substrate; gate and data lines and a thin film transistor on the inner surface of the upper array substrate; a planarization layer on the inner surface of the upper array substrate, and exposing a part of a drain electrode; a common electrode on the planarization layer; a passivation layer on the planarization layer and exposing the part of the drain electrode; a touch line on the passivation layer; an inter-layered insulating layer on the passivation layer, covering the touch line, and exposing the part of the drain electrode, the touch line and the common electrode; a plurality of pixel electrodes on the inter-layered insulating layer, overlapping the common electrode, and connected to the drain electrode; and a connection line connecting the touch line and the pixel electrodes.

Abstract: A display device is discussed. The display device according to an embodiment includes a substrate including a plurality of gate lines, and a plurality of data lines crossing the plurality of gate lines; and a sub-pixel array structure including a sub-pixel group corresponding to the substrate. The sub-pixel group includes a first sub-pixel; a second sub-pixel in a column different from the first sub-pixel; and third sub-pixels divided in two rows and in two columns with at least one of the first sub-pixel and the second sub-pixel therebetween.

Abstract: The present invention relates to a road guide post comprising: a supporter (110) which is fixed to the ground by being coupled to an anchor bolt (10), and which is provided in the form of a semicircular body; a guide post body (120) which has a post shape that is screw-coupled to or fitted into the supporter (110), with a concave groove part (111) on the upper outer surface of the body to allow reflective sheets to be attached thereto; reflective sheets (130), multiple layers of which are attached to the concave groove part (111) of the guide post body (120): and a bracket (140) which is inserted and fixed into the bottom surface of the supporter (110) and is used to reinforce the coupling force of the anchor bolt (10).