Abstract:
A manufacturing method of an optical waveguide device which is capable of suppressing the surface roughening of core side surfaces of an optical waveguide when the optical waveguide is formed on a roughened surface of a substrate. An under cladding layer is formed on a roughened surface of a substrate made of a material that absorbs irradiation light, and then a photosensitive resin layer for the formation of cores is formed thereon. Irradiation light is directed toward this photosensitive resin layer to expose the photosensitive resin layer in a predetermined pattern to the irradiation light. When the irradiation light transmitted through the photosensitive resin layer for the formation of the cores and the under cladding layer reaches the surface of the substrate, the irradiation light is absorbed by the substrate, so that there is little irradiation light reflected from the surface of the substrate.
Abstract:
An optical waveguide for a touch panel which eliminates the need for alignment between the optical waveguide and a lens and which achieves the appropriate emission and reception of light beams, to provide a touch panel using the optical waveguide, and to provide a manufacturing method of the optical waveguide for a touch panel. A total distance (L) which is the sum of a distance from the center of curvature of the first lens portion 30 to the light reflecting surface 60 and a distance from the light reflecting surface 60 to the tip of the second lens portion 50, and the radius (R) of curvature of the second lens portion 50 satisfy the following condition (A): (L/3)−0.5
Abstract translation:一种用于触摸面板的光波导,其消除了对光波导和透镜之间的对准的需要,并且实现了光束的适当发射和接收,以提供使用该光波导的触摸面板,并且提供了一种制造方法 用于触摸面板的光波导。 从第一透镜部30到光反射面60的曲率中心的距离与从光反射面60到第二透镜部50的前端的距离之和的总距离(L),以及 第二透镜部分50的曲率半径(R)满足以下条件(A):<?在线公式描述=“在线公式”end =“lead”>>(L / 3)-0.5 其中L in mm,R in mm。
Abstract:
A method of manufacturing an optical waveguide including the steps of forming a core on a surface of an under cladding layer, and forming an over cladding layer on a surface of the core, in which the step of forming the over cladding layer includes preparing a molding die formed with a recessed portion having a die surface conformable in shape to a surface of the over cladding layer and a through hole in communication with the recessed portion; bringing an open surface of the recessed portion into close contact with the surface of the under cladding layer; while keeping this state, pouring a liquid resin which is a material for forming the over cladding layer through the through hole into a mold space surrounded by the die surface of the recessed portion and the surface of the under cladding layer; and hardening the liquid resin.
Abstract:
The present invention relates to a trisoxetane compound represented by the following formula (1): wherein each of R1 and R3's represents a hydrogen atom or an alkyl group having 1 to 6 carbon atom(s); R2 represents a divalent aliphatic chained organic group having 0 to 16 carbon atom(s); and A represents a carbon atom or a trivalent organic group derived from a cycloalkane having 3 to 12 carbon atoms; a process for producing the same; and an optical waveguide including the same.
Abstract translation:本发明涉及由下式(1)表示的三氧杂环丁烷化合物:其中R 1和R 3各自表示氢原子或具有 1至6个碳原子; R 2表示具有0至16个碳原子的二价脂族链状有机基团; A表示碳原子或衍生自碳原子数3〜12的环烷烃的三价有机基团, 其制造方法; 以及包括该光波导的光波导。
Abstract:
In a contact type seal arrangement for a rolling bearing, it is aimed to reduce torque and improve sealability by improving the lip structure of each seal member.Each seal member 11 has a branch portion 15 at substantially the same height as the land 3 of the inner ring. A main lip 16 is defined by its portion extending radially inwardly from the branch portion 15. The tip of the main lip 16 is brought into contact with the outer groove wall 21 of the seal groove 4 to define a contact seal 25. An auxiliary lip 17 is defined by a portion extending axially inwardly from the branch portion 15. A labyrinth seal 19 is defined between the tip of the auxiliary lip 17 and the inner groove wall 18 of the seal groove 4.
Abstract:
The present invention relates to a process for producing an optical waveguide, which comprises forming an undercladding layer on a surface of a substrate; forming a photosensitive resin composition layer on the undercladding layer; irradiating a surface of the photosensitive resin composition layer with ultraviolet through a photomask having a given pattern to conduct an exposure; removing an unexposed area of the photosensitive resin composition layer after the exposure by dissolving the unexposed area with a developing liquid to thereby form a core layer; and forming an overcladding layer on the core layer, in which the developing liquid is an aqueous γ-butyrolactone solution having a concentration of from 10 to 99% by weight. According to the process, it is possible to obtain an optical waveguide in which neither the core layer itself nor the interface between the core layer and the undercladding layer cracks and which has a small light loss.
Abstract:
The playback apparatus of the present invention is able to judge whether a region code assigned to a BD-ROM matches a region code assigned to the playback apparatus. When the judgment result is in the affirmative, the playback apparatus plays back the content recorded on the optical disc. When the judgment result is in the negative, the playback apparatus does not play back the content, except when an exceptional playback is authorized. The exceptional playback is authorized when a combination of the content identifier of the content to be played back and the apparatus region code satisfies a predetermined condition defined by a right owner of the content.
Abstract:
An object of the present invention is to provide a game machine having high data management ability. In order to achieve this object, the game machine (10) of the present invention includes a card interface (11) configured so that a magnetic card (20) is detachably attached thereto, card ID recording means (12) for recording a card ID generated on the basis of time information specifying the date and time when the magnetic card (20) is attached to the card interface (11) in a magnetic data recording area (22) provided in the magnetic card (20), and printing means (14) for printing an access code uniquely obtained by the calculation of a predetermined function based on the card ID in a printing area (21) of the magnetic card (20).
Abstract:
A play data management server 22 collect via an internet 20 play data of various games, such as competition fighting games, etc. executed on a game device 12, and stores and manages the play data. The play data management server recognizes a player for special ranking, and prepares a special ranking data group for the player recognized as the special ranking and an ordinary ranking data group for players who has not been recognized as players for the special ranking. The ranking data generating program can keep the general players form being unmotivated to play games even when a player who obtains unnatural results.
Abstract:
A geometry processor 10 has an image processing device having a matrix computing unit 14 that is connected to a vector bus VB through which coordinate conversion target data is supplied and a matrix bus MB through which coordinate conversion matrix is supplied, and that performs multiplication of the coordinate conversion target data by the coordinate conversion matrix, wherein the processor is provided with a switching unit 24 that supplies a mixture ratio S28 to the vector bus VB and interpolation computation target data S18 to the matrix bus MB, and wherein the matrix computing unit 14 performs interpolation computation of the interpolation computation target data S18 in accordance with the mixture ratio S28. According to this invention, the interpolation computation needed for a subdivision surface process and other processes may be performed using the matrix computing unit 14 provided in the geometry processor, normally for the purpose of coordinate conversion. Therefore, it is not necessary to incorporate a dedicated interpolation computing unit in the geometry processor, and the circuit size of the geometry processor may be reduced. Furthermore, the vector product computation may be performed using the matrix computing unit 14.