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    • 51. 发明专利
    • Method for processing glass substrate to be flat
    • 将玻璃基板加工成平面的方法
    • JP2006027936A
    • 2006-02-02
    • JP2004207086
    • 2004-07-14
    • Yuzo MoriTosoh Corp東ソー株式会社森 勇蔵
    • MORI YUZOOKAMURA TOSHIHIKOASANO MUTSUMI
    • C03C15/00G03F1/24G03F1/60
    • PROBLEM TO BE SOLVED: To provide a method for processing the whole surface of a glass substrate to be highly flat. SOLUTION: The method for processing the glass substrate to be flat is performed by reacting the glass substrate with a radical generated on the substrate with plasma and controlling the volatilized amount of a reaction product. Straight scanning is performed to a direction on X-Y axes and to the reverse direction after the step scanning is performed with the width wider than a plasma processing area. After the repeat of the straight/step scanning exceeds the size of the glass substrate, plasma is moved from the position where initial straight scanning is started to a step direction at a specified interval. The straight scanning and the step scanning with a width wider than a plasma processing area are repeated again in the method. Glass for stabilizing the plasma having the width wider than the plasma processing area with static plasma is placed at the periphery of the glass substrate for processing. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种将玻璃基板的整个表面加工成高度平坦的方法。 解决方案:通过使玻璃基板与基板上产生的自由基与等离子体反应并控制反应产物的挥发量来进行平坦化处理的方法。 在宽度大于等离子体处理区域的宽度进行步进扫描之后,对X-Y轴方向和反方向进行直线扫描。 在直/扫描扫描的重复超过玻璃基板的尺寸之后,等离子体以指定的间隔从初始直扫扫的位置移动到台阶方向。 在该方法中再次重复直径扫描和宽度比等离子体处理区域宽的步长扫描。 用于将等离子体的宽度比等离子体处理区域的宽度等于静态等离子体稳定的玻璃放置在玻璃基板的外围进行处理。 版权所有(C)2006,JPO&NCIPI
    • 52. 发明专利
    • Method and device for processing ultraprecise mirror surface
    • 用于处理超声镜面的方法和装置
    • JP2006021295A
    • 2006-01-26
    • JP2004203423
    • 2004-07-09
    • Yuzo Mori森 勇蔵
    • MORI YUZO
    • B24B31/10B24B1/04B24B31/14H01L21/304
    • PROBLEM TO BE SOLVED: To provide a method and a device for processing an ultraprecise mirror surface capable of mirror-surface processing a surface to be processed of a workpiece such as a semiconductor wafer and a substrate for a thin film without generating distortion, cracks, and thermal deterioration, etc., and suitable for mass-production. SOLUTION: The surface to be processed of the workpiece K is horizontally held in a processing container W. Superfine powder adsorbing water molecules is housed in the processing container and positioned on the surface to be processed. The superfine powder is made to contact in a fluidized state with the surface to be processed of the workpiece by two-dimensionally oscillating the processing container in a horizontal surface. The mirror surface processing is made to proceed by mutual action on an interface between the superfine powder and the surface to be processed. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种用于处理超精密镜面的方法和装置,其能够对诸如半导体晶片的工件(例如半导体晶片)和薄膜的基板进行加工的表面进行镜面处理而不产生变形 ,裂纹和热劣化等,适合批量生产。 解决方案:将工件K的待加工表面水平地保持在加工容器W中。吸附水分子的超细粉末容纳在处理容器中并且位于待处理的表面上。 通过使处理容器在水平面上二维摆动,使超细粉末以流化状态与待加工的表面接触。 通过在超细粉末和待处理表面之间的界面上的相互作用来进行镜面处理。 版权所有(C)2006,JPO&NCIPI
    • 53. 发明专利
    • Plasma processor
    • JP2004241510A
    • 2004-08-26
    • JP2003027689
    • 2003-02-04
    • Yuzo MoriSharp Corpシャープ株式会社森 勇蔵
    • EHATA YUSUKEMORI YUZO
    • H05H1/24B01J19/08C23C16/50H01L21/3065
    • PROBLEM TO BE SOLVED: To effectively remove particulates, reaction products and the like, which are bonded to the surface of a rotary electrode, and to suppress contamination of the peripheral atmosphere of the rotary electrode and the surface of a substrate. SOLUTION: The rotary electrode 1 and the substrate 2 are mutually oppositely arranged by leaving a prescribed interval. Power is supplied to the rotary electrode 1, and the rotary electrode 1 is rotated while plasma P is generated in a gap between the rotary electrode 1 and the substrate 2. Reactant gas is supplied to a plasma generation region and reactant gas is made to cause chemical reaction. A prescribed plasma processing is performed on the substrate 2. A nozzle 4 jetting gas onto a surface of the rotary electrode 1 from a gas jet port and the suction port 3a of a suction means sucking gas are installed near the rotary electrode 1. The suction port 3a sucks and removes the particulates, the reaction products and the like, and sucks and removes the particulates and the reaction products, which are peeled from the rotary electrode 1 by gas jetted on the surface of the rotary electrode 1 from the nozzle 4. COPYRIGHT: (C)2004,JPO&NCIPI
    • 57. 发明专利
    • Plasma film-forming apparatus
    • 等离子体成膜装置
    • JP2003013237A
    • 2003-01-15
    • JP2001196862
    • 2001-06-28
    • Kobe Steel LtdYuzo Mori株式会社神戸製鋼所森 勇蔵
    • HAYASHI KAZUYUKIKOBAYASHI AKIRAKUGIMIYA TOSHIHIROGOTO YASUSHIISHIBASHI KIYOTAKANAKAGAMI AKIMITSUMORI YUZO
    • C23C16/50H01L21/205
    • PROBLEM TO BE SOLVED: To provide a plasma film-forming apparatus, which enables rapid film formation even when using a liquid raw material with low vapor pressure, and rapidly can form a metal oxide thin-film such as titania and zircon, a metal nitride thin-film such as silicon nitride and titanium nitride, and a metal thin-film such as aluminum and titanium.
      SOLUTION: This plasma film-forming apparatus comprises generating plasma under a high pressure such as atmospheric pressure by a drum-shaped rotating electrode 101, and coating a substrate 102 with the liquid raw material including elements constituting the thin film by a raw material coating means 105, before the substrate 102 arrives at a plasma region. Then, the apparatus can supply a large quantity of raw material gas to plasma, by coating the substrate 102 with the above liquid raw material and vaporizing it when employing the above liquid raw material even with the low vapor pressure.
      COPYRIGHT: (C)2003,JPO
    • 要解决的问题:为了提供等离子体薄膜形成装置,即使在使用低蒸气压的液体原料的情况下也能够快速成膜,并且可以快速地形成诸如二氧化钛和锆石的金属氧化物薄膜,金属氮化物 诸如氮化硅和氮化钛的薄膜和诸如铝和钛的金属薄膜。 解决方案:该等离子体成膜装置包括通过鼓形旋转电极101在诸如大气压的高压下产生等离子体,并且通过原料涂覆装置将构成薄膜的液体原料包括在构成薄膜的元件的基板102上 在衬底102到达等离子体区域之前。 然后,即使在低蒸汽压下使用上述液体原料,该装置也可以通过用上述液体原料涂布基板102并使其蒸发而将大量的原料气体供应给等离子体。
    • 59. 发明申请
    • Electron-Beam-Assisted EEM Method
    • 电子束辅助EEM方法
    • US20100221986A1
    • 2010-09-02
    • US11989960
    • 2006-08-03
    • Yuzo Mori
    • Yuzo Mori
    • B24B1/00
    • G21K1/06B23H5/04B23H7/38B23K15/00B24B31/10B24C1/08G21K2201/064G21K2201/067Y10S451/908
    • To provide an electron beam assisted EEM method that can realize ultraprecision machining of workpieces, including glass ceramic materials, in which at least two component materials different from each other in machining speed in a machining process are present in a refined mixed state and the surface state is not even, to a surface roughness of 0.2 to 0.05 nm RMS. The EEM method comprises a working process in which a workpiece and chemically reactive fine particles are allowed to flow along the working face to remove atoms on the working face chemically bonded to the fine particles together with the fine particles through chemical interaction between the fine particles and the working face interface. The workpiece comprises at least two component materials present in a refined mixed state and different from each other in machining speed in the machining process. After the exposure of the workpiece in its working face to an electron beam to conduct modification so that the machining speed of the surface layer part in the working face is substantially even, ultraprecision smoothening is carried out by working process.
    • 提供一种能够实现包括玻璃陶瓷材料在内的工件的超精密加工的电子束辅助EEM方法,其中在加工过程中以加工速度彼此不同的至少两种组分材料以精细混合状态存在,并且表面状态 不均匀,表面粗糙度为0.2〜0.05nm RMS。 EEM方法包括工作过程,其中允许工件和化学反应性微粒沿着工作面流动,以通过细颗粒与细颗粒之间的化学相互作用将微粒与化学键合的工作面上的原子除去 工作面界面。 工件包括以精加工的混合状态存在并且在加工过程中以加工速度彼此不同的至少两种组分材料。 在将工件的工作面暴露于电子束进行变形,使得工作面中的表层部的加工速度基本均匀的情况下,通过加工工序进行超精密平滑化。