Abstract: A LiDAR and camera data fusion method includes generating a voxel-wise feature map based on point cloud data of a LiDAR sensor, generating a pixel-wise feature map based on image data of a camera, converting three-dimensional (3D) coordinates of point data of the voxel-wise feature map to two-dimensional (2D) coordinates, based on at least one predefined calibration parameter, and generating fused data by combining pixel data of the pixel-wise feature map and point data of the 2D coordinates.

Abstract: A combined power plant is provided. The combined power plant includes a gas turbine configured to combust fuel to generate a rotating force, a boiler configured to heat water to generate steam, an ammonia decomposition apparatus configured to receive a combustion gas generated in the gas turbine to thermally decompose ammonia to generate a decomposed gas containing hydrogen, nitrogen, and a residual ammonia, a steam turbine configured to generate a rotating force using the steam generated in the boiler, and a decomposed gas supply line configured to supply the decomposed gas generated in the ammonia decomposition apparatus to a combustor of the gas turbine.

Abstract: A display device includes a display panel including a plurality of pixels, a data driver configured to provide data voltages to the pixels, and a gate driver configured to provide gate signals to the pixels. The display device also includes a controller configured to control the data driver and the gate driver, and to control the magnitude of a sensing initialization voltage applied to the pixels based on a frame rate value when operating in a variable frame mode.

Abstract: A method for production of red ginseng hydrolysis concentrate according to an embodiment of the present disclosure includes carrying out an enzyme reaction of red ginseng concentrate by adding an enzyme solution followed by addition of alcohol to prepare a mixture solution of red ginseng and alcohol, and centrifuging the prepared mixture solution of red ginseng and alcohol followed by concentration under reduced pressure of a supernatant separated by the centrifuge, and a red ginseng hydrolysis concentrate produced by the aforementioned process.

Abstract: A method for producing black ginseng concentrate is characterized by including steps of adding red ginseng to a continuous steaming-dryer followed by steaming, cooling, and drying to prepare black ginseng, carrying out extraction by adding alcohol to crushed black ginseng obtained by crushing the black ginseng prepared above followed by filtration to prepare black ginseng extract, and concentrating the black ginseng extract prepared above by using a plate type evaporative concentrator followed by heat treatment, and the present invention also relates to black ginseng concentrate prepared by the aforementioned method.

Abstract: A method for production of red ginseng hydrolysis concentrate according to an embodiment of the present disclosure includes carrying out an enzyme reaction of red ginseng concentrate by adding an enzyme solution followed by addition of alcohol to prepare a mixture solution of red ginseng and alcohol, and centrifuging the prepared mixture solution of red ginseng and alcohol followed by concentration under reduced pressure of a supernatant separated by the centrifuge, and a red ginseng hydrolysis concentrate produced by the aforementioned process.

Abstract: An internal member for an apparatus of depositing a conductive thin film includes a chamber structure including a object supporting unit supporting an object on which the conductive thin film is to be deposited, and a target supporting unit supporting a target for depositing the conductive thin film on the object, wherein the target including a first metal material the chamber structure having a reaction space therein and a coating structure formed on an inner surface of the chamber structure, the inner surface being indirectly exposed to the reaction space of the chamber structure via the coating structure, and the coating structure including a second metal material having at least one metal element in the first metal material.

Abstract: An internal member for an apparatus of depositing a conductive thin film includes a chamber structure including a object supporting unit supporting an object on which the conductive thin film is to be deposited, and a target supporting unit supporting a target for depositing the conductive thin film on the object, wherein the target including a first metal material the chamber structure having a reaction space therein and a coating structure formed on an inner surface of the chamber structure, the inner surface being indirectly exposed to the reaction space of the chamber structure via the coating structure, and the coating structure including a second metal material having at least one metal element in the first metal material.

Abstract: In a method of removing particles on an object in accordance with one aspect of the present invention, air is injected into a space where the object is placed to remove foreign substances in the space. A first light is irradiated onto the object to remove charges in the object. A second light is irradiated onto the object to remove moisture droplets between the object and the particles. A third light is irradiated onto the object to remove static electricity between the object and the particles. The particles are then blown off from the object. Thus, an adhesion force between the particles and the object may be removed so that the particles may be readily blown off from the object.

Abstract: In a method of removing particles on an object, a fluid is injected into a spacer where the object is placed to remove foreign substances in the space. A first light is irradiated to the object to remove charges between an upper face of the object and the particles, and inner walls of holes and the particles. A second light is irradiated to the object to remove moisture droplets between the upper face of the object and the particles, and the inner walls of the holes and the particles. A third light is irradiated to the object to remove static electricity between the upper face of the object and the particles, and the inner walls of the holes and the particles. A fluid is applied to the upper face and the holes of the object to remove the particles from the object.