Abstract:
본 발명의 일실시예는 절단헤드와 절단대상물의 충돌을 방지할 수 있는 수중 레이저 절단 장치 및 수중 레이저 절단 방법을 제공한다. 여기서, 수중 레이저 절단 장치는 헤드부, 팁부 그리고 포켓부를 포함한다. 팁부는 헤드부에 구비되고, 발진된 절단용 레이저가 대상물의 목표위치에 조사되도록 안내한다. 포켓부는 팁부를 감싸도록 구비되되, 일단부는 헤드부에 틸팅되도록 결합되고, 타단부가 대상물에 접촉되어 팁부가 대상물로부터 이격되도록 한다.
Abstract:
According to the present invention, a method for forming a microstructure comprises: a step for generating a laser beam from a laser oscillator; a step for focusing the laser beam after passing the laser beam through a scanner and a lens; a step for changing laser energy per a unit area by separating the surface of the mold as far as a working distance which is farther than the focal distance of the lens; and a step for processing the surface of the mold while scanning the surface of the mold with the laser beam by using the scanner. The microstructure in the form of a convex lens is formed in the surface of the mold to correspond with the scan area of the laser beam.
Abstract:
The present invention relates to a method for synchronizing a stage with a scanner, and provides a scanner and a method for synchronizing a stage with a scanner, wherein the method for synchronizing a stage with a scanner comprising: a first step of setting up a first and a second point as an initial block, wherein the first and second point are contiguous points among multiple points which are distributed discretely from a processing path after a set-up feed is set up; a second step for calculating the travel range of the initial block; a third step of calculating the real feed of the initial block; a fourth step of determining whether the initial block is a micro-block or not; a fifth step of setting up a third point near the second point and the first point as the next block if the initial block of the fourth step is determined as the micro-block, and then the first step is repeated. The method for synchronizing a stage with a scanner according to the present invention is provided to reduce the travel range of the stage, thereby controlling the stage easily. [Reference numerals] (AA) Start;(BB) Yes;(CC) No;(DD) End;(S10) Setting-up the initial block;(S20) Calculating a travel range;(S30) Calculating a real feed;(S40) Determining whether the initial block is a micro-block or not;(S5) Setting up acceleration/deceleration time (Ta), a set-up feed;(S50) Reading the next block;(S60) Generating and overlapping a speed profile
Abstract:
PURPOSE: A manufacturing system of flexible circuit board which uses a laser and a manufacturing method thereof are provided to easily form a micro pattern on a board. CONSTITUTION: A board(10) includes a roll to roll device(100), a laser device(200), and a plating device(400). The roll to roll device includes a supply roll(110) which supplies a board in which a metal compound is dispersed in a base material. The laser device irradiates a laser to the board which is supplied from the supply roll, decomposes the metal compound, and forms a seed pattern on the board. The plating device forms a circuit pattern on the seed pattern by dipping the board in which the seed pattern is formed by the laser device and performing an electroless plating.
Abstract:
PURPOSE: A method and an apparatus for manufacturing a honeycomb welded structure are provided to improve the strength of a honeycomb welded structure by obtaining uniform thickness of layers in the honeycomb welded structure. CONSTITUTION: A method for manufacturing a honeycomb welded structure comprises the steps of: laminating first and second layers(11,12), projecting a laser beam to the second layer so that the first and second layers are welded in a first direction at regular intervals, laminating a third layer(13) on the second layer, and projecting a laser beam to the third layer so that the second and third layers are welded in the first direction at regular intervals. The welding position of the first and second layers is different from the welding position of the second and third layers. [Reference numerals] (AA) Extension direction
Abstract:
PURPOSE: A groove patterning system for three-dimensional curves is provided to facilitate the alignment of an objective lens and a laser head for workpieces by lifting the objective lens through a step motor at a Z-stage. CONSTITUTION: A groove patterning system for three-dimensional curves comprises an XY-stage(10), a Z-stage, a step motor(32), a laser head(40), first and second beam splitters(41,42), a confocal optics(50) and a controller. An object(11) having a three-dimensional curve is mounted on the XY-stage and the XY-stage is driven to a X-axial and a Y-axial direction. The Z-stage is driven to a Z-axial direction above the XY-stage. The step motor moves an objective lens(31) to the Z-axial direction. The laser head is mounted on the Z-stage and irradiates a laser beam to the objective lens. The first beam splitter is installed between the laser head and the objective lens. The second beam splitter is installed between the confocal optics and the objective lens. The confocal optics are installed in the Z-stage and measures the shape of three-dimensional curves. The controller controls the XY-stage, the Z-stage, and the step motor according to the data of the three-dimensional curves measured in the confocal optics and controls the output of the laser head.
Abstract:
PURPOSE: A jig device of an electronic beam welder and a welding method are provided to enhance the efficiency of welding by loading a target to a welding position or unloading the target welded, continuously. CONSTITUTION: A jig device of an electronic beam welder comprises a transfer unit(110), a loading jig(130), and a unloading jig(150). The transfer unit transfers a target. The loading jig is arranged on one side of the transfer unit. The loading jig can load to the target to the transfer unit falling the target. The unloading jig is arranged on a side facing the loading jig. A welding position arranged on one region on a line of the transfer unit is formed between the loading jig and the unloading jig. The jig can unload the target welded rising the target. The loading jig comprises a first loading frame(131), a first up/down driving unit(133), and a falling restricting unit.