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    • 1. 发明专利
    • Ultra-precision shape measuring method
    • 超精密形状测量方法
    • JP2007218852A
    • 2007-08-30
    • JP2006042547
    • 2006-02-20
    • J Tec:KkKazuto Yamauchi和人 山内株式会社ジェイテック
    • YAMAUCHI KAZUTOMIMURA HIDEKAZU
    • G01B11/24
    • G01B11/2441G01B9/02085G01B2290/60G01M11/005
    • PROBLEM TO BE SOLVED: To provide an ultra-precision shape measuring method capable of ultra-precisely measuring in the precision of the nano or sub-nano order a plane mirror or a curved surface mirror having a shape similar to a plane for condensing a hard X-ray or a soft X-ray used in a radiation light facility, especially a measuring object having a steep shape exceeding 1×10 -4 rad in an elliptic shape or a cylindrical shape. SOLUTION: The whole shape is measured by stitching a plurality of microscopic measured data by a Michelson type microinterferometer by using the whole shape data by a Fizeau type interferometer. A curved surface to be measured and a reference plane are measured simultaneously by the Fizeau type interferometer, and the curved surface to be measured and the reference plane are tilted simultaneously with respect to a reference surface, and a plurality of partial shape data of a narrower domain than the curved surface to be measured are acquired, and simultaneously a relative angle between each partial shape data is measured as a tilt angle of the reference plane, and adjacent partial shape data are stitched by utilizing the tilt angle and coincidence of superposed domains, to thereby acquire the whole shape data. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:为了提供能够超精细地测量纳米或亚纳米级精度的超精密形状测量方法,具有类似于平面的形状的平面镜或曲面反射镜, 冷凝在辐射光设备中使用的硬X射线或软X射线,特别是具有椭圆形或圆柱形的超过1×10 -4 rad的陡峭形状的测量对象。

      解决方案:通过使用由Fizeau型干涉仪使用整个形状数据,通过迈克尔逊型微型干涉仪缝合多个微观测量数据来测量整个形状。 通过Fizeau型干涉仪同时测量待测量的弯曲表面和参考平面,并且待测量的曲面和参考平面相对于参考表面同时倾斜,并且多个部分形状数据较窄 获取要测量的曲面的区域,并且同时测量每个局部形状数据之间的相对角度作为参考平面的倾斜角,并且通过利用叠加域的倾斜角度和重合来缝合相邻的部分形状数据, 从而获得整个形状数据。 版权所有(C)2007,JPO&INPIT

    • 2. 发明专利
    • Catalyst-assisted chemical processing method
    • 催化辅助化学处理方法
    • JP2006114632A
    • 2006-04-27
    • JP2004299263
    • 2004-10-13
    • Yasuhisa SanoKazuto Yamauchi泰久 佐野和人 山内
    • YAMAUCHI KAZUTOSANO YASUHISA
    • H01L21/306B01J37/02
    • PROBLEM TO BE SOLVED: To provide a catalyst-assisted chemical processing method which has a high processing efficiency and is suitable for processing in a spatial wavelength region of several 10 μm or above by using a catalytic action which makes a chemical reaction possible without changing a reference surface.
      SOLUTION: A workpiece is placed in a processing liquid consisting of a halide acid which does not show a solubility with respect to the workpiece in an ordinary state. A catalyst 1 consisting of a platinum, gold, or ceramic solid-state catalyst is arranged in contact with or very close to a surface 2 to be processed of the workpiece. Halogen radicals generated by molecular dissociation of a hydrogen halide on the surface of the catalyst and surface atoms of the workpiece chemically react with each other by generating a halogenated compound. The workpiece is processed by solving out the halogenated compound.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种催化剂辅助的化学处理方法,其具有高处理效率并且适合于在几个10μm以上的空间波长区域中加工,使用可能产生化学反应的催化作用 而不改变参考表面。 解决方案:将工件放置在由常规状态下不显示相对于工件的溶解度的卤化物酸组成的处理液中。 由铂,金或陶瓷固态催化剂组成的催化剂1被布置成接触或非常接近待加工工件的表面2。 通过催化剂表面上的卤化氢的分子解离和工件的表面原子产生的卤素基团通过产生卤代化合物彼此发生化学反应。 通过求出卤化物来处理工件。 版权所有(C)2006,JPO&NCIPI
    • 3. 发明专利
    • METHOD FOR GRAPHENE FILM DEPOSITION ON SiC SUBSTRATE AND SiC SUBSTRATE WITH GRAPHENE
    • 用于石墨膜沉积在SiC衬底上的方法和具有石墨的SiC衬底
    • JP2011230959A
    • 2011-11-17
    • JP2010102620
    • 2010-04-27
    • Kazuto Yamauchi和人 山内
    • YAMAUCHI KAZUTOHATTORI AZUSAARIMA KENTASANO YASUHISA
    • C01B31/02H01L21/306H01L29/161
    • PROBLEM TO BE SOLVED: To provide a method for graphene film deposition on an SiC substrate which forms high-quality graphene by vacuum annealing at a lower temperature without requiring hydrogen annealing treatment, and to provide an SiC substrate with graphene.SOLUTION: The method for graphene film deposition on an SiC substrate comprises: a precision processing step by catalyst-referred etching (CARE) which can flatten a single crystal SiC surface to such a degree that scratches are removed and a step-terrace structure appears; a washing step; and an annealing step of forming graphene on the SiC surface by heat treatment in a vacuum at 800-1,100°C for 1-10 min, wherein the number of layers of graphene is controlled to one or two by controlling the heat treatment conditions in the annealing step.
    • 要解决的问题:提供一种通过在不需要氢退火处理的较低温度下进行真空退火而形成高质量石墨烯的SiC衬底上的石墨烯膜沉积的方法,并且提供具有石墨烯的SiC衬底。 解决方案:用于石墨烯薄膜沉积在SiC衬底上的方法包括:通过催化剂参考蚀刻(CARE)的精密加工步骤,其可以使单晶SiC表面平坦化以使划痕被除去的程度和阶梯式平台 结构出现; 洗涤步骤 以及通过在800-1100℃的真空中热处理1-10分钟在SiC表面上形成石墨烯的退火步骤,其中通过控制石墨烯的热处理条件将石墨烯的层数控制在一个或两个 退火步骤。 版权所有(C)2012,JPO&INPIT
    • 8. 发明申请
    • CATALYST-AIDED CHEMICAL PROCESSING METHOD
    • 催化辅助化学处理方法
    • US20120241087A1
    • 2012-09-27
    • US13449622
    • 2012-04-18
    • Kazuto YAMAUCHIYasuhisa Sano
    • Kazuto YAMAUCHIYasuhisa Sano
    • C23F1/08
    • B81C1/00539Y10T428/31678Y10T442/20
    • A catalyst-aided chemical processing method is a novel processing method having a high processing efficiency and suited for processing in a space wavelength range of not less than several tens of μm. The catalyst-aided chemical processing method comprises: immersing a workpiece in a processing solution in which a halogen-containing molecule is dissolved, said workpiece normally being insoluble in said processing solution; and bringing a platinum, gold or ceramic solid catalyst close to or into contact with a processing surface of the workpiece, thereby processing the workpiece through dissolution in the processing solution of a halogenide produced by chemical reaction between a halogen radical generated at the surface of the catalyst and a surface atom of the workpiece.
    • 催化剂辅助化学处理方法是一种具有高处理效率并且适于在不小于几十μm的空间波长范围内进行处理的新型加工方法。 催化剂辅助化学处理方法包括:将工件浸入其中溶解有含卤素分子的处理溶液中,所述工件通常不溶于所述处理溶液; 并将铂,金或陶瓷固体催化剂与工件的加工表面接近或接触,从而通过溶解在通过在表面上产生的卤素自由基之间的化学反应产生的卤化物的处理溶液中来处理工件 催化剂和工件的表面原子。
    • 9. 发明申请
    • CATALYST-AIDED CHEMICAL PROCESSING METHOD
    • 催化辅助化学处理方法
    • US20100273381A1
    • 2010-10-28
    • US12832194
    • 2010-07-08
    • Kazuto YAMAUCHIYasuhisa Sano
    • Kazuto YAMAUCHIYasuhisa Sano
    • B32B5/02B32B15/08B32B18/00
    • B81C1/00539Y10T428/31678Y10T442/20
    • A catalyst-aided chemical processing method is a novel processing method having a high processing efficiency and suited for processing in a space wavelength range of not less than several tens of μm. The catalyst-aided chemical processing method comprises: immersing a workpiece in a processing solution in which a halogen-containing molecule is dissolved, said workpiece normally being insoluble in said processing solution; and bringing a platinum, gold or ceramic solid catalyst close to or into contact with a processing surface of the workpiece, thereby processing the workpiece through dissolution in the processing solution of a halogenide produced by chemical reaction between a halogen radical generated at the surface of the catalyst and a surface atom of the workpiece.
    • 催化剂辅助化学处理方法是一种具有高处理效率并且适于在不小于几十μm的空间波长范围内进行处理的新型加工方法。 催化剂辅助化学处理方法包括:将工件浸入其中溶解有含卤素分子的处理溶液中,所述工件通常不溶于所述处理溶液; 并将铂,金或陶瓷固体催化剂与工件的加工表面接近或接触,从而通过溶解在通过在表面上产生的卤素自由基之间的化学反应产生的卤化物的处理溶液中来处理工件 催化剂和工件的表面原子。
    • 10. 发明申请
    • X-RAY CONDENSING METHOD AND ITS DEVICE USING PHASE RESTORATION METHOD
    • X射线冷凝方法及其使用相位恢复方法的装置
    • US20100183122A1
    • 2010-07-22
    • US12440121
    • 2007-12-27
    • Kazuto YamauchiHidekazu MimuraHiromi Okada
    • Kazuto YamauchiHidekazu MimuraHiromi Okada
    • G21K1/06
    • G21K1/06G02B5/0891G02B5/10G21K2201/067
    • An X-ray condensing method and its device are provided with an X-ray mirror that has a wavefront adjustable function to finely adjust a wavefront of a reflecting X-ray, measure an X-ray intensity distribution in the vicinity of a focus, measure an X-ray intensity distribution in the vicinity of the X-ray mirror or use a known X-ray intensity distribution of an incident X-ray, calculate a complex amplitude distribution at the reflective surface by using a phase restoration method from the X-ray intensity distribution in the vicinity of the focus and the X-ray intensity distribution in the vicinity of the reflective surface, calculate a wavefront aberration of an X-ray condensing optical system from the complex amplitude distribution, and control the reflective surface of the X-ray mirror with the wavefront adjustable function so that the wavefront aberration is minimized.
    • X射线聚焦方法及其装置设置有具有波前可调功能的X射线镜,以精细地调整反射X射线的波前,测量焦点附近的X射线强度分布,测量 在X射线反射镜附近的X射线强度分布或使用已知的入射X射线的X射线强度分布,通过使用来自X射线透镜的相位恢复方法计算出反射面上的复振幅分布, 在焦点附近的射线强度分布和反射面附近的X射线强度分布,从复振幅分布计算出X射线聚光光学系统的波前像差,并控制X的反射面 具有波前可调功能的光镜,使波前像差最小化。