Abstract: A lamp for a vehicle includes an optical unit including a plurality of optical modules to form a specific beam pattern on a road surface, the beam pattern includes a first pattern area and a second pattern area more spaced apart from the optical unit than the first pattern area, the optical unit includes a first optical module to form the first pattern area and a second optical module to form the second pattern area, and the second pattern area is placed on an optical axis of the second optical module.

Abstract: In one example, a semiconductor device can comprise a substrate, a device stack, first and second internal interconnects, and an encapsulant. The substrate can comprise a first and second substrate sides opposite each other, a substrate outer sidewall between the first substrate side and the second substrate side, and a substrate inner sidewall defining a cavity between the first substrate side and the second substrate side. The device stack can be in the cavity and can comprise a first electronic device, and a second electronic device stacked on the first electronic device. The first internal interconnect can be coupled to the substrate and the device stack. The encapsulant can cover the substrate inner sidewall and the device stack and can fill the cavity. Other examples and related methods are disclosed herein.

Abstract: An occlusion alignment method according to the present disclosure includes: extracting at least one tooth area data from upper jaw scan data and lower jaw scan data; and adjusting an occlusion position of the upper jaw scan data and the lower jaw scan data using the at least one tooth area data.

Abstract: Disclosed is a lamp for a vehicle. The lamp for a vehicle includes a light source part that generates and outputs light, and a lens array provided on a front side of the light source part, the lens array includes a first lens part including a plurality of first micro lenses, to which the light is input from the light source part, a second lens part including a plurality of second micro lenses that outputs the light input from the first lens part, and a shield part located between the first lens part and the second lens part, and that shields a portion of the light input from the first lens part to the second lens part to form a specific beam pattern on a road surface, and the shield part is provided to be movable to change a lamp image of the beam pattern formed on the road surface.

Abstract: A lamp for a vehicle includes a light source part that generates and outputs light, and a lens array on a front side of the light source part, the lens array includes a first lens part including a plurality of first micro lenses, to which the light is input from the light source part, and a second lens part including a plurality of second micro lenses that outputs the light input from the first lens part and forms a specific beam pattern, when an optical axis of the light output from the light source part and input toward the first lens part is defined as a first optical axis and an optical axis output from the second lens part is defined as a second optical axis, the lens array is inclined in a direction, in which the second optical axis faces a road surface.

Abstract: A lamp for a vehicle that includes a light source part that generates and irradiates light, and a lens array provided on a front side of the light source part, the lens array includes a first lens part including a plurality of first micro lenses, to which the light is input from the light source part, and a second lens part including a plurality of second micro lenses that outputs the light input from the first lens part, and upward/downward sizes of at least some of the plurality of first micro lenses are smaller than upward/downward sizes of the second micro lenses provided at corresponding locations.

Abstract: The present invention relates to a three-dimensional scan data processing system and three-dimensional scan data processing method and, more specifically, to a three-dimensional scan data processing system and three-dimensional scan data processing method for integrating and using pieces of three-dimensional shape data of an object structure that has been scanned at different times. The three-dimensional scan data processing system and three-dimensional scan data processing method of the present invention have an effect of easily integrating pieces of shape data regarding a three-dimensional structure of an object, which have been obtained at different times. The three-dimensional scan data processing system method of the present invention enable new shape data regarding the same object to easily integrate into the previously acquired shape data regarding the three-dimensional structure of the object.

Abstract: Provided are an intraoral image processing method and an intraoral image processing apparatus. The intraoral image processing method includes obtaining an intraoral image generated by scanning teeth, segmenting teeth of the intraoral image, generating a customized curve based on one or more teeth included in the intraoral image, and obtaining a final position of teeth by arranging teeth segmented from the intraoral image to be aligned with the customized curve.

Abstract: A reliability data obtaining system and method using multi-angle scanning includes a scanner configured to scan an object at multi-angles and a controller configured to generate and align real-time three-dimensional (3D) surfaces based on a plurality of pieces of data obtained from the scanner and assign characteristic information to unit cells included in the real-time 3D surfaces obtained via multi-angle scanning. The characteristic information may include a resource density, a curve of an object, an object color, a reliability color, position information, etc. According to the disclosure, a degree of accumulation of the resource density may be limited according to the position information so that data having various angle ranges may be accumulated in each unit cell. Thus, an intraoral model having minimized data distortion and having high reliability may be obtained.

Abstract: According to a data locking system and a data locking method, data obtained from a scanner is converted into a real-time three-dimensional surface having unit cells. The unit cells constituting the real-time three-dimensional surface include at least one piece of characteristic information having a variety of information such as color, curvature, reliability color, or data density. When new data is input from the scanner, after performing a real-time three-dimensional surface conversion and aligning process, the characteristic information assigned to the unit cells may be updated or update-restricted according to the characteristic information about a corresponding point.

Abstract: A lamp for a vehicle includes an optical unit including a plurality of optical modules to form a specific beam pattern on a road surface, the beam pattern includes a first pattern area and a second pattern area more spaced apart from the optical unit than the first pattern area, the optical unit includes a first optical module to form the first pattern area and a second optical module to form the second pattern area, and the second pattern area is placed on an optical axis of the second optical module.

Abstract: Provided is a data processing method according to the present disclosure including: a scan data acquiring operation of acquiring scan data expressing an object, a reliability determining operation of determining a reliability of at least one evaluation area including at least one unit area for evaluating the scan data, and an indicating operation of indicating the evaluation area as a predetermined mark depending on the reliability of the evaluation area.

Abstract: A data processing method includes obtaining a scan shot representing an object, aligning the scan shot with a pre-formed at least one inactive cluster, and selectively merging an active cluster including the scan shot and the inactive cluster based on whether the scan shot is aligned with the inactive cluster.

Abstract: A lamp for a vehicle according to the present disclosure includes a light source part, a shield part disposed on an output side of the light source part, and that shields a portion of light irradiated from the light source part to form a specific beam pattern, and a lens part disposed on an output side of the shield part, that projects the light irradiated from the light source part, and including a plurality of lenses disposed to be spaced apart from each other in an optical axis direction, at least one of the plurality of lenses is a first lens, and a first surface of the first lens is concave and a second surface of the first lens, which is a surface that is opposite to the first surface, is convex.

Abstract: An electrostatic precipitator integrated with a double-skin facade of a building, includes: an outer window installed at an outdoor side of the building; an outer upper opening and an outer lower opening installed at upper and lower portions, respectively, of the outer window for indoor ventilation; an inner window providing a hollow layer between the inner window and the outer window by being installed at a room side facing the outer window; an inner upper opening and an inner lower opening installed at upper and lower portions, respectively, of the inner window for ventilation; at least one discharge electrode charging particles introduced into the hollow layer through the outer lower opening by being installed in the hollow layer; and dust collecting electrodes precipitating charged particles by being installed in contact with the hollow layer.

Abstract: The present invention relates to a digital scan body alignment method and a device using the same. The present invention corrects scan data through library data corresponding to image data on oral structure. At that time, to achieve best-fit of aligning the library data to the scan data initially, the data alignment can be performed by using a first alignment step. In order to accomplish data correction by more accurate data alignment, a second alignment step can be performed using the library data which includes shape information and axis information. By performing the second alignment step, corrected data having higher reliability can be formed, and a more precise prosthesis can be provided to a patient.

Abstract: An electrostatic precipitator integrated with a double-skin facade of a building, includes: an outer window installed at an outdoor side of the building; an outer upper opening and an outer lower opening installed at upper and lower portions, respectively, of the outer window for indoor ventilation; an inner window providing a hollow layer between the inner window and the outer window by being installed at a room side facing the outer window; an inner upper opening and an inner lower opening installed at upper and lower portions, respectively, of the inner window for ventilation; at least one discharge electrode charging particles introduced into the hollow layer through the outer lower opening by being installed in the hollow layer; and dust collecting electrodes precipitating charged particles by being installed in contact with the hollow layer.

Abstract: A reverse modeling method using mesh data as a feature to allow reverse modeling to be conducted by following a procedure of an original designer includes the steps of detecting optional model data, setting the model data as a feature, and establishing a reference coordinate system of set mesh data; establishing a work plane on which a sketch of the set mesh data can be projected; projecting section data of the mesh data on the work plane; dividing data projected on the work plane into feature segments depending upon curvature distributions, and producing divided segments as sketch data; and producing a three dimensional feature from the sketch data which corresponds to a shape of the mesh data, and storing the produced three dimensional feature as model data, wherein the produced sketch data and three dimensional feature are parametrically connected with each other.