Abstract: A molding method for a cover window includes: locally heating a peripheral portion of a glass substrate around a central portion of the glass substrate to a temperature of about 610° C. to about 670° C., forming a cover window by pressing the glass substrate, and annealing and cooling the cover window. Accordingly, a cover window in which each of edges has an outwardly convex curved surface through a glass substrate may be formed. In addition, the surface roughness of a cover window formed through a glass substrate may be improved.

Abstract: A pattern design for defect inspection, the pattern design including a first floating conductive line; a second floating conductive line; and a grounded conductive line disposed between the first floating conductive line and the second floating conductive line. The first floating conductive line, the second floating conductive line, and the grounded conductive line are divided into a main pad region, a plurality of subregions, a plurality of sub-pad regions, and a ground region. The main pad region is positioned at a first end portion of the pattern design. The ground region is positioned at a second end portion of the pattern design. The plurality of subregions and the plurality of sub-pad regions are positioned between the main pad region and the ground region.

Abstract: A pattern design for defect inspection, the pattern design including a first floating conductive line; a second floating conductive line; and a grounded conductive line disposed between the first floating conductive line and the second floating conductive line. The first floating conductive line, the second floating conductive line, and the grounded conductive line are divided into a main pad region, a plurality of subregions, a plurality of sub-pad regions, and a ground region. The main pad region is positioned at a first end portion of the pattern design. The ground region is positioned at a second end portion of the pattern design. The plurality of subregions and the plurality of sub-pad regions are positioned between the main pad region and the ground region.

Abstract: An apparatus for molding a window, the apparatus includes: a first molding part; a jig disposed below the first molding part, the jig including a bottom surface and a plurality of side surfaces configured to support and seat a work piece to be processed into a window; and an second molding part disposed on the bottom surface, wherein the second molding part includes: a lower surface adjacent to the bottom surface; an upper surface facing the lower surface; a first cavity having a first curved surface generally concave in a direction facing the lower surface; a plurality of second cavities extending from the first cavity, the plurality of second-cavities having second curved surfaces; and a plurality of movable molds disposed on the second-cavities supported for movement along the second curved surfaces, respectively.

Abstract: The window molding apparatus for processing a member having first and second opposed, substantially flat sides and a bendable portion disposed therebetween, the apparatus includes a first molding part controlled to move in a substantially linear direction and a jig including a support surface on which the member is seated and a recess in the support surface to receive the bendable portion of the member and the first molding part.

Abstract: A pattern design for defect inspection, the pattern design including a first floating conductive line; a second floating conductive line; and a grounded conductive line disposed between the first floating conductive line and the second floating conductive line. The first floating conductive line, the second floating conductive line, and the grounded conductive line are divided into a main pad region, a plurality of subregions, a plurality of sub-pad regions, and a ground region. The main pad region is positioned at a first end portion of the pattern design. The ground region is positioned at a second end portion of the pattern design. The plurality of subregions and the plurality of sub-pad regions are positioned between the main pad region and the ground region.

Abstract: The present invention relates to a apparatus for quantitative continuous real-time monitoring to monitor a continuous reaction of biochemical reagent and the reaction, such as DNA. More particularly, the present invention is directed to a miniaturized apparatus for real-time monitoring of biochemical reaction, which comprises capillary tubes (100) wherein biochemical reaction mixture flow; a thermal conduction block (120) which is coiled with capillary tube several rounds in order and composed of several blocks for temperature control of which temperatures are different from each other for heating or cooling the biochemical reaction mixture which flow in capillary tube, and a temperature controller which controls the temperature of above temperature control block; a radiation part (130) to radiate the reaction mixture flowing through the capillary tube and a light receiving section (140) which receives and measures the intensity of the fluorescence generated from the capillary tubes.

Abstract: The present invention relates to an apparatus for real-time monitoring chemical reaction between various biomaterials. More particularly, the present invention directed to a real-time monitoring apparatus for biochemical reaction, which comprises parabolic mirror and/or an optical waveguide tube for effective irradiation of light over the whole plate with uniform intensity.

Abstract: The present invention relates to an apparatus for real-time monitoring chemical reaction between various biomaterials. More particularly, the present invention directed to a real-time monitoring apparatus for biochemical reaction, which comprises parabolic mirror and/or an optical waveguide tube for effective irradiation of light over the whole plate with uniform intensity.

Abstract: A retroreflective article includes a flat front surface, and a structured rear surface displaced from the flat front surface. The structured rear surface is provided with arrays of sets of three mutually perpendicular lateral triangular sides, and a plurality of trigonal linear prisms. The three lateral triangular sides have a common apex and uncommon linear base edges. The linear prisms are disposed along at least one of the linear base edges of the three lateral triangular sides.

Abstract: A lenticular lens sheet for enlarging vertical and horizontal view angles and minimizing a color shift. In the sheet, incident side lenses formed in a half-cylinder shape are arranged in parallel to converge an incident light. The light converged by each of the half-cylinder shaped lenses is diffused in the vertical and horizontal direction by prism shaped output side lenses.