会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 3. 发明授权
    • Measurement probe and using method for the same
    • 测量探头和使用方法相同
    • US07065893B2
    • 2006-06-27
    • US11014947
    • 2004-12-20
    • Takaaki KassaiKeishi KuboMasateru DoiHiroyuki MochizukiKeiichi Yoshizumi
    • Takaaki KassaiKeishi KuboMasateru DoiHiroyuki MochizukiKeiichi Yoshizumi
    • G01B5/00
    • G01B3/008G01B5/012G01B7/002
    • A measuring probe for obtaining positional information on a measuring target face has: a movable member having a contact portion which is formed in its top and comes into contact with the measuring target face and a reflecting plane formed on its base end for reflecting a measuring light beam; a magnetic substance mounted on the movable member; a fixed member disposed in a fixed state; a bearing provided on the fixed member for supporting the movable member movably in axis line direction; and a magnetic force generating portion provided on the fixed member for generating force acting upon the magnetic substance to move the movable member in the axis line direction. The movable member is formed from a nonmagnetic material, and the bearing and the fixed member are formed from a magnetic material.
    • 用于获得测量目标面上的位置信息的测量探针具有:具有形成在其顶部并与测量对象面接触的接触部分的可动部件和形成在其基端的用于反射测量光的反射面 光束; 安装在可动件上的磁性物质; 以固定状态设置的固定部件; 设置在所述固定构件上用于沿轴线方向可移动地支撑所述可动构件的轴承; 以及磁力产生部,其设置在所述固定部件上,用于产生作用在所述磁性物质上的力,以使所述可动部件沿所述轴线方向移动。 可动构件由非磁性材料形成,并且轴承和固定构件由磁性材料形成。
    • 4. 发明授权
    • Configuration measuring method and apparatus for optically detecting a
displacement of a probe due to an atomic force
    • 用于光学地检测由原子力引起的探头位移的配置测量方法和装置
    • US5616916A
    • 1997-04-01
    • US563071
    • 1995-11-27
    • Koji HandaKeishi KuboMasateru DoiKeiichi Yoshizumi
    • Koji HandaKeishi KuboMasateru DoiKeiichi Yoshizumi
    • G01B11/00G01B21/30G01H9/00G01H17/00G01N37/00G01Q10/04G01Q20/02G01Q20/04G01Q60/24G01Q80/00G02B21/00H01J37/28H01J3/14
    • G01Q60/38B82Y35/00G01H9/00G01Q10/04G01Q30/025G02B21/0004Y10S977/87
    • Substantially collimated displacement detection light is led to a first lens and condensed by the first lens to proximities to a reflecting surface of a probe. The reflected light is displaced by an atomic force acting against a surface of a sample, where the reflected light varies in reflection angle according to the displacement. The displaced light is lead to the first lens, changed in direction by a mirror, and detected by magnifying the displacement of the probe. The detection further includes steps of moving a Z direction scan block in a direction vertical to the sample surface by a Z direction driving device, the Z direction scan block having the first lens and the probe, moving an X direction scan block in a first axial direction within a plane parallel to the sample surface by an X direction driving device, the X direction scan block having the Z direction scan block, the Z direction driving device, and the mirror, and moving a Y direction scan block by a Y direction driving device in a second axial direction perpendicular to the first axial direction within a plane parallel to the sample surface, the Y direction scan block having the X direction scan block, the X direction driving device, the detection light radiation system, and the displacement detection system.
    • 基本上准直的位移检测光被引导到第一透镜,并且被第一透镜聚光到探针的反射表面。 反射光被作用在样品表面上的原子力移位,其中反射光根据位移以反射角度变化。 偏移的光线通过第一透镜,通过镜子改变方向,并且通过放大探针的位移来检测。 该检测还包括以下步骤:通过Z方向驱动装置使Z方向扫描块沿垂直于样品表面的方向移动,Z方向扫描块具有第一透镜和探头,沿X方向扫描块移动第一轴向 通过X方向驱动装置在与样品表面平行的平面内的方向,具有Z方向扫描块的X方向扫描块,Z方向驱动装置和反射镜,并且通过Y方向驱动来移动Y方向扫描块 在垂直于第一轴向的第二轴向方向的平面内的装置,具有X方向扫描块的Y方向扫描块,X方向驱动装置,检测光辐射系统和位移检测系统 。
    • 5. 发明授权
    • Apparatus and method for measuring flatness of thin plate
    • 测量薄板平整度的装置和方法
    • US06710883B2
    • 2004-03-23
    • US10140883
    • 2002-05-09
    • Keiichi YoshizumiKeishi KuboHiroyuki TakeuchiKouji Handa
    • Keiichi YoshizumiKeishi KuboHiroyuki TakeuchiKouji Handa
    • G01B902
    • G01B11/2441G01B11/306
    • The invention measures a thickness variation at a high accuracy around a wide range of a thin plate by a comparatively large spot diameter between 0.5 mm and 2 mm. A polarization beam splitter separating a laser beam emitted from a laser generator and transmitting through an isolator into a measurement light and a reference light is provided. A quarter wavelength plate is provided between the polarization beam splitter and a measurement surface, and between the polarization beam splitter and a reference surface. A focusing and reflecting means for focusing and reflecting the measurement light reflected by the measurement surface and reflected by the polarization beam splitter, and the reference light reflecting by the reference surface and transmitting through the polarization beam splitter is provided. A half mirror reflecting the measurement light and the reference light which return from the polarization beam splitter is provided. A light receiving portion receiving the measurement light and the reference light which are reflected by the half mirror so as to interfere, converting an interference light intensity change into an electric signal, and counting the electric signal so as to measure a flatness of the measurement surface is provided.
    • 本发明通过0.5mm至2mm之间的较大的光点直径来测量薄板宽范围内的高精度的厚度变化。 提供了将从激光发生器发射的激光束分离并通过隔离器传输到测量光和参考光的偏振分束器。 四分之一波长板设置在偏振分束器和测量表面之间以及偏振分束器与参考表面之间。 提供了用于聚焦和反射由测量表面反射并由偏振分束器反射的测量光以及由参考表面反射并通过偏振分束器透射的参考光的聚焦和反射装置。 提供了反射从偏振分束器返回的测量光和参考光的半反射镜。 接收由半反射镜反射的测量光和参考光的光接收部分,其干涉,将干涉光强度变化转换成电信号,并对电信号进行计数,以便测量测量表面的平坦度 被提供。
    • 9. 发明授权
    • Apparatus and method for measuring width of micro gap
    • 用于测量微间隙宽度的装置和方法
    • US5459939A
    • 1995-10-24
    • US179709
    • 1994-01-11
    • Keishi KuboKeiichi Yoshizumi
    • Keishi KuboKeiichi Yoshizumi
    • G01B11/14G01B7/00G01B7/06G01B7/14G01B11/02G01B21/16G01B21/30G01Q60/32G01Q60/36G01Q60/40G01Q70/14G01Q80/00G01Q90/00G01B5/02
    • G01B7/14G01B11/02G01B7/06
    • An apparatus and method for measuring a width of a micro gap of a non-conductive material of a sample which is formed between two conductive materials thereof, includes a conductive probe having a sharpened front end, a cantilever having the probe, a sample confronting the probe, a driving device for relatively moving the sample with respect to the probe in three directions of XYZ, and bias power source for applying a voltage between the probe and the sample, an electric current detecting device for detecting a contact current running between the probe and the sample, a micro displacement detecting part which detects an amount of deflection of the cantilever when the sample and the probe are in touch with each other, a servo part which feeds back the amount of the deflection of the cantilever detected by the micro displacement detecting part to the driving device thereby to control to change a position of the sample in the Z-direction of the probe so as to make the amount of the deflection of the cantilever constant, and a measuring device for scanning the probe on the sample in a widthwise direction of the gap of the sample by the driving device, and at the same time sampling outputs of the detecting device thereby to measure the width of the gap in the widthwise direction.
    • 用于测量在其两个导电材料之间形成的样品的非导电材料的微隙的宽度的装置和方法包括具有锋利前端的导电探针,具有探针的悬臂,面向 探针,用于在XYZ的三个方向上相对于探针相对移动样品的驱动装置,以及用于在探针和样品之间施加电压的偏置电源,用于检测探头之间的接触电流的电流检测装置 以及所述样本,当所述样本和所述探针相互接触时检测所述悬臂的偏转量的微位移检测部,反馈由所述微位移检测出的所述悬臂的偏转量的伺服部 检测部件到驱动装置,从而控制在探针的Z方向上改变样品的位置,从而使得取样量 悬臂常数的测量装置,以及用于通过驱动装置在样品的间隙的宽度方向上扫描样品的测量装置,同时对检测装置的采样输出进行测量, 宽度方向的间隙。