Abstract: A structured document file is created in an efficient manner. A document acquisition unit 3130 acquires the structured document file. A relationship information acquisition unit 3132 acquires relationship information defining the relationship between components included in the structured document file. A display rule retaining unit 3134 retains display rule information expressing a rule to display the structured document file in accordance with the relationship information. A display style determination unit 3124 refers to the relationship information and display rule information on the structured document file, and then determines a display style of the structured document file. A display unit 3122 displays the components included in the structured document file on a screen by means of graphics objects, respectively, in accordance with the display style that has been determined.

Abstract: A user interface screen for editing a structured document file is simply designed. A binding file is created from a schema file which defines the element structure of a source file. A display layout for editing a source file is designed via the binding file and the resultant is saved as a layout file. A user can edit the layout file. An XSLT file is created from the layout file and the binding file, and a definition file for creating the user interface screen for editing the source file is created from the XSLT file.

Abstract: In a document processing apparatus, an acquiring unit acquires data described in a markup language. A processing system such as a map component, processes certain data by receiving the data. A cooperative control component extracts data to be inputted in the processing system, from the data that the acquiring unit acquires. A display control component displays a screen outputted by the processing system that has processed the data thus determined and inputted by the cooperative control component.

Abstract: A matching device includes a matching unit that selects a pattern consistent with data to be compared, based on a rule by which a correspondence relation between patterns of data described in a markup language is defined; and a variable control unit that substitutes, when a pattern including a variable is selected, the data to be compared located at a position corresponding to a position of the variable in the selected pattern into the variable. The variable control unit substitutes, when the data to be compared is data described in a markup language, and when the data to be compared located at the position corresponding to the position of the variable in the selected pattern, is a fragment including a plurality of nodes, the fragment into the variable.

Abstract: As the endface preparation of the coated optical fiber, cutting using thermal stress is carried out, and a ceramic heater is used as a heat source, thereby making it possible to provide a coated optical fiber endface preparation method and tool capable of increasing the cutting success rate of the coated optical fiber. The coated optical fiber is removed of its coating to obtain the bare optical fiber. The bare optical fiber is heated by the heat source consisting of the ceramic heater, and is cut by further adding stress to part of the bare optical fiber which has been provided with the thermal stress. When heating the bare optical fiber, the product of a temperature and the heating time of the heat source is made 3000° C. sec or more.

Abstract: A mask mark is irradiated by an ultra-violet light source, thereby the image of the mark is passed through a lens and a half-mirror, then reflected by a mirror, thereafter further passed through a beam splitter and a lens, forming an image on a CCD. Then the center coordinate of the image is measured by a device, next, a board mark is illuminated by an infrared light source, and its image is passed through the mirror, the half-mirror, the beam splitter, a reflector, a lens, and a beam splitter, forming an image on a CCD. The positional alignment is implemented by moving the mobile stage in the XY? directions based on the board mark on the infrared CCD and the mask mark on the ultra-violet CCD.

Abstract: An optical magnification adjustment system being capable of minutely correcting magnification. A first lens 1 of plano-convex is installed on the side of an object surface 5, and a second lens 2 of concave-plano is installed on the side of a formed image surface 7. By controlling the center space d between the first lens and the second lens, the image is enlarged or reduced. The radii of curvature R2 and R3 of the convex surface of the first lens and the concave surface of the second lens are respectively set according to the following equations. R2=(1−n1)/&phgr;2 R3=(n2−1)/&phgr;3 where, &phgr;2 and &phgr;3 represent optical power, and n1 and n2 represent refraction indexes, respectively.

Abstract: An optical magnification adjustment system being capable of minutely correcting magnification. A first lens 1 of plano-convex is installed on the side of an object surface 5, and a second lens 2 of concave-plano is installed on the side of a formed image surface 7. By controlling the center space d between the first lens and the second lens, the image is enlarged or reduced. The radii of curvature R2 and R3 of the convex surface of the first lens and the concave surface of the second lens are respectively set according to the following equations.

Abstract: An optical magnification adjustment system being capable of minutely correcting magnification. A first lens 1 of plano-convex is installed on the side of an object surface 5, and a second lens 2 of concave-plano is installed on the side of a formed image surface 7. By controlling the center space d between the first lens and the second lens, the image is enlarged or reduced. The radii of curvature R2 and R3 of the convex surface of the first lens and the concave surface of the second lens are respectively set according to the following equations. R2=(1−n1)/&phgr;2 R3=(n2−1)/&phgr;3 where, &phgr;2 and &phgr;3 represent optical power, and n1 and n2 represent refraction indexes, respectively.

Abstract: The invention provides a projection exposure device that makes precise positional alignment possible.

Abstract: An optical magnification adjustment system being capable of minutely correcting magnification. A first lens 1 of plano-convex is installed on the side of an object surface 5, and a second lens 2 of concave-plano is installed on the side of a formed image surface 7. By controlling the center space d between the first lens and the second lens, the image is enlarged or reduced. The radii of curvature R2 and R3 of the convex surface of the first lens and the concave surface of the second lens are respectively set according to the following equations.