Abstract: A printed circuit board includes a substrate including a plurality of wiring layers; a first metal post disposed on the substrate and connected to at least a portion of an uppermost wiring layer among the plurality of wiring layers; a second metal post disposed on the substrate and connected to at least another portion of the uppermost wiring layer among the plurality of wiring layers; a resist layer disposed on the substrate and embedding at least a portion of each of the first and second metal posts; and a metal via penetrating through the resist layer on the second metal post and connected to the second metal post.

Abstract: A printed circuit board includes a glass layer having a first side surface and a second side surface, opposing each other in a first direction, a third side surface and a fourth side surface, opposing each other in a second direction, a first corner portion connecting the first side surface and the third side surface to each other, a second corner portion connecting the first side surface and the fourth side surface to each other, a third corner portion connecting the second side surface and the third side surface to each other, and a fourth corner portion connecting the second side surface and the fourth side surface to each other; a first insulating layer covering at least a portion of at least one side surface of the first to fourth side surfaces; and a second insulating layer covering at least one of the first to fourth corner portions.

Abstract: A printed circuit board includes a substrate including a plurality of wiring layers; a first metal post disposed on the substrate and connected to at least a portion of an uppermost wiring layer among the plurality of wiring layers; a second metal post disposed on the substrate and connected to at least another portion of the uppermost wiring layer among the plurality of wiring layers; a resist layer disposed on the substrate and embedding at least a portion of each of the first and second metal posts; and a metal via penetrating through the resist layer on the second metal post and connected to the second metal post.

Abstract: The projection image compensating method according to an embodiment of the present disclosure includes acquiring mesh data, at least one representative image, at least one supplementary image, and position information which is information about an obtaining pose of each image for an indoor space; adding an index of each of the plurality of faces to a matrix corresponding to a size of the at least one representative image in accordance with a result of projecting the plurality of faces which configures the mesh data to the at least one representative image; detecting at least one occluded face among the plurality of faces, using an index added to the matrix; and extracting pixel information which is information of a pixel value corresponding to the at least one occluded face from the at least one supplementary image.

Abstract: The projection image compensating method according to an embodiment of the present disclosure includes acquiring mesh data, at least one representative image, at least one supplementary image, and position information which is information about an obtaining pose of each image for an indoor space; adding an index of each of the plurality of faces to a matrix corresponding to a size of the at least one representative image in accordance with a result of projecting the plurality of faces which configures the mesh data to the at least one representative image; detecting at least one occluded face among the plurality of faces, using an index added to the matrix; and extracting pixel information which is information of a pixel value corresponding to the at least one occluded face from the at least one supplementary image.

Abstract: A method for controlling a motor driven power steering (MDPS) system includes detecting, by a controller, a current position of a rack bar; comparing, by the controller, the current position of the rack bar with a preset maximum position of the rack bar; updating, by the controller, the maximum position of the rack bar according to the comparison result; and setting, by the controller, a rack end stop control section using the updated maximum position of the rack bar.

Abstract: A method for controlling a motor driven power steering (MDPS) system includes detecting, by a controller, a current position of a rack bar; comparing, by the controller, the current position of the rack bar with a preset maximum position of the rack bar; updating, by the controller, the maximum position of the rack bar according to the comparison result; and setting, by the controller, a rack end stop control section using the updated maximum position of the rack bar.

Abstract: A complex protection device for blocking an abnormal state of current and voltage is disclosed. In the complex protection device, a resistive element is configured in the form of a structure and thus the resistive element has enhanced durability and surface mounting technology suitable for automation may be utilized, and a plurality of resistive elements is configured in various resistances and sizes to be optimally designed for product characteristics.

Abstract: An apparatus for driving a motor driven power steering (MDPS) may include: a first calculation unit configured to calculate a damping force gain based on an MDPS output current; a second calculation unit configured to calculate a damping force using vehicle speed and steering angle speed; and a damping force calculation unit configured to calculate a final damping force using the damping force gain calculated through the first calculation unit and the damping force calculated through the second calculation unit.

Abstract: A complex protection device for blocking an abnormal state of current and voltage is disclosed. In the complex protection device, a resistive element is configured in the form of a structure, and thus, the resistive element has enhanced durability, surface mounting technology suitable for automation may be used, and an insulation distance may be sufficiently secured when a fusible element is blown out.

Abstract: A complex protection device for blocking an abnormal state of current and voltage is disclosed. In the complex protection device, a resistive element is configured in the form of a structure and thus the resistive element has enhanced durability and surface mounting technology suitable for automation may be utilized, and a plurality of resistive elements is configured in various resistances and sizes to be optimally designed for product characteristics.

Abstract: An apparatus for driving a motor driven power steering (MDPS) may include: a first calculation unit configured to calculate a damping force gain based on an MDPS output current; a second calculation unit configured to calculate a damping force using vehicle speed and steering angle speed; and a damping force calculation unit configured to calculate a final damping force using the damping force gain calculated through the first calculation unit and the damping force calculated through the second calculation unit.

Abstract: A box for housing a product such as a toy, e.g., a battery operated stuffed animal, includes a body having a floor and a pair of side walls, a roof being supported by the at least one side wall and being positioned opposite to the floor, an opening being disposed at a front section of the roof between the side walls, the opening permitting a product housed therein to be displayed, stored and movably repositioned upon the floor of the body.