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    • 1. 发明申请
    • SHAPE MEASUREMENT METHOD, AND SYSTEM THEREFOR
    • 形状测量方法及其系统
    • US20130262027A1
    • 2013-10-03
    • US13880429
    • 2011-10-21
    • Chie ShishidoMaki TanakaAtsushi MiyamotoAkira HamamatsuManabu Yano
    • Chie ShishidoMaki TanakaAtsushi MiyamotoAkira HamamatsuManabu Yano
    • G01B21/04
    • G01B21/04G01B15/04H01L22/12
    • A model based measurement method is capable of estimating a cross-sectional shape by matching various pre-created cross-sectional shapes with a library of SEM signal waveforms. The present invention provides a function for determining whether or not it is appropriate to create a model of a cross-sectional shape or a function for verifying the accuracy of estimation results to a conventional model based measurement method, wherein a solution space (expected solution space) is obtained by matching library waveforms and is displayed before measuring the real pattern by means of model based measurement. Moreover, after the real pattern is measured by means of model based measurement, the solution space (real solution space) is obtained by matching the real waveforms with the library waveforms and is displayed.
    • 基于模型的测量方法能够通过将各种预先创建的横截面形状与SEM信号波形的库进行匹配来估计横截面形状。 本发明提供一种功能,用于确定是否适于创建横截面形状的模型或用于验证估计结果的准确性的功能,以用于基于常规的基于模型的测量方法,其中,解空间(预期解空间 )通过匹配库波形获得,并且在通过基于模型的测量测量实际图案之前显示。 此外,在通过基于模型的测量来测量实际模式之后,通过将实际波形与库波形相匹配来获得解空间(实解空间),并显示。
    • 3. 发明申请
    • CHARGED PARTICLE BEAM APPARATUS
    • 充电颗粒光束装置
    • US20110260057A1
    • 2011-10-27
    • US13124599
    • 2009-10-22
    • Tadashi OtakaHiroyuki ItoRyoichi IshiiManabu YanoHajime Kawano
    • Tadashi OtakaHiroyuki ItoRyoichi IshiiManabu YanoHajime Kawano
    • H01J37/26
    • H01J37/20H01J37/28H01J2237/20214H01J2237/2811H01J2237/2817
    • According to a charged particle beam apparatus of this invention, an inspection position on a test sample (wafer coordinate system) is converted to a setting position of an inspection mechanism (stage coordinate system (polar coordinate system)), a rotating arm (102,1012) and a rotating stage (103,1011) being rotated to be moved for the inspection position on the test sample.In this case, a plurality of inspection devices are arranged over a locus that is drawn by the center of the rotating stage according to the rotation of the rotating arm. A function for calculating errors (e.g., center shift of the rotating stage) and compensating for the errors is provided, by which the precision of inspection is improved in a charged particle beam apparatus equipped with a biaxial rotating stage mechanism. With this configuration, a charged particle beam apparatus which is small-sized and capable of easy stage control can be realized.
    • 根据本发明的带电粒子束装置,将测试样品(晶片坐标系)上的检查位置转换为检查机构(载台坐标系(极坐标系))的设定位置,旋转臂(102, 1012)和旋转台(103,1011)旋转以移动以用于测试样品上的检查位置。 在这种情况下,根据旋转臂的旋转,将多个检查装置布置在由旋转台的中心拉伸的轨迹上。 提供了一种用于计算误差(例如,旋转台的中心偏移)和补偿误差的功能,通过该功能,在装备有双轴旋转平台机构的带电粒子束装置中提高了检查精度。 利用这种结构,可以实现小型化并且能够容易地进行阶段控制的带电粒子束装置。
    • 9. 发明授权
    • Remotely controllable circuit breaker
    • US4897625A
    • 1990-01-30
    • US295315
    • 1989-01-09
    • Youichi YokoyamaHideya KondoYouichi KunimotoManabu Yano
    • Youichi YokoyamaHideya KondoYouichi KunimotoManabu Yano
    • H01H71/66H01H51/22H01H73/50H01H89/10
    • H01H89/10H01H51/2209
    • A remotely controllable circuit breaker with an improved space saving structure comprises first and second movable contacts 11 and 12 which are held respectively on first and second contact arms 31 and 32 and are driven individually by a switching mechanism 20 including a manual handle 22 with a contact tripping capability and by a remote control signal responsive electromagnet 60. An L-shaped actuator 80 with a horizontal member 81 and a vertical member 83 is provided to operatively connect the second contact arm 32 to an axially movable core 63, the output member of the electromagnet 60. The actuator 80 is pivoted at its connection between the horizontal and vertical members 81 and 83 and carries the second contact arm 32 on its vertical member 83 for pivotal movement of the second contact arm 32 between operative and inoperative positions respectively enabling and disabling the contact closing. The electromagnet 60 is arranged in side-by-side relation to the switching mechanism 40 with the first and second contact arms 31 and 32 interposed therebetween. The actuator 80 is located in proximity to the electromagnet 60 with the vertical member 83 extending over the lengthwise dimension or the axial direction of the core 63 and with the horizontal member extending over the width dimension of the electromagnet 60 to thereby accommodate the substantial portion of the actuator 80 within the lengthwise and widthwise dimensions of the adjacently disposed electromagnet 60.