Integrated optical and charged particle inspection apparatus
    3.
    发明授权
    Integrated optical and charged particle inspection apparatus 有权
    集成光学和带电粒子检测仪器

    公开(公告)号:US09378921B2

    公开(公告)日:2016-06-28

    申请号:US14428163

    申请日:2013-09-16

    Applicant: DELMIC B.V.

    Abstract: The present invention relates to a method for mutually aligning a scanning electron microscope SEM and a light microscope LM by creating a change (61) in the detected light signal of the light microscope LM by illuminating a substrate with an electron beam, correlating the position of the electron beam in the coordinate system of the scanning electron microscope SEM to the position of the observed change in the detected light signal in the coordinate system of the light microscope LM, and relatively shifting the scanning electron microscope SEM and the light microscope LM with respect to one another to a desired relative position of the coordinate systems (60, 62).

    Abstract translation: 本发明涉及通过用电子束照射基板来在光显微镜LM的检测光信号中产生变化(61)来相互对准扫描电子显微镜SEM和光学显微镜LM的方法, 扫描电子显微镜SEM的坐标系中的电子束到光显微镜LM的坐标系中检测到的光信号的观察位置的位置,并相对移动扫描电子显微镜SEM和光学显微镜LM,相对于 彼此相对于坐标系(60,62)的期望的相对位置。

    INTEGRATED OPTICAL AND CHARGED PARTICLE INSPECTION APPARATUS
    5.
    发明申请
    INTEGRATED OPTICAL AND CHARGED PARTICLE INSPECTION APPARATUS 有权
    集成光学和充电颗粒检测装置

    公开(公告)号:US20150262784A1

    公开(公告)日:2015-09-17

    申请号:US14428163

    申请日:2013-09-16

    Applicant: DELMIC B.V.

    Abstract: The present invention relates to a method for mutually aligning a scanning electron microscope SEM and a light microscope LM by creating a change (61) in the detected light signal of the light microscope LM by illuminating a substrate with an electron beam, correlating the position of the electron beam in the coordinate system of the scanning electron microscope SEM to the position of the observed change in the detected light signal in the coordinate system of the light microscope LM, and relatively shifting the scanning electron microscope SEM and the light microscope LM with respect to one another to a desired relative position of the coordinate systems (60, 62).

    Abstract translation: 本发明涉及通过用电子束照射基板来在光显微镜LM的检测光信号中产生变化(61)来相互对准扫描电子显微镜SEM和光学显微镜LM的方法, 扫描电子显微镜SEM的坐标系中的电子束到光显微镜LM的坐标系中检测到的光信号的观察位置的位置,并相对移动扫描电子显微镜SEM和光学显微镜LM,相对于 彼此相对于坐标系(60,62)的期望的相对位置。

    DETERMINING AN ELECTROMAGNETIC RESPONSE OF A SAMPLE
    6.
    发明申请
    DETERMINING AN ELECTROMAGNETIC RESPONSE OF A SAMPLE 审中-公开
    确定样品的电磁响应

    公开(公告)号:US20140297205A1

    公开(公告)日:2014-10-02

    申请号:US14153262

    申请日:2014-01-13

    CPC classification number: G01N23/2251 H01J2237/24485 H01J2237/2482

    Abstract: Determining electromagnetic response of sample structure having predetermined bulk permittivity and permeability, to electron and radiation pulses, includes calculating electron pulse response of sample structure to electron pulse excitation, using finite-difference time-domain method. Electron pulse excitation is represented by non-singular current source driven by relativistic moving non-Coulombian electron charges, electron pulse response is calculated based on interaction of electron pulse excitation with electromagnetic modes of sample structure at laboratory frame, and electron pulse response depends on bulk permittivity and permeability of sample structure, calculating radiation response of sample structure to electromagnetic radiation excitation, using finite-difference time-domain method. Radiation response depends on bulk permittivity and permeability of sample structure, and providing electromagnetic response of sample structure by superimposing electron pulse response and radiation response. Electromagnetic response comprises electron-energy-loss spectra and/or experienced phase of electron wave functions after interacting with photons of electromagnetic radiation excitation. Method and measuring apparatus are also described.

    Abstract translation: 确定具有预定体积电容率和磁导率,电子和辐射脉冲的样品结构的电磁响应包括使用有限差分时域法计算样品结构对电子脉冲激发的电子脉冲响应。 电子脉冲激励由相对论运动的非库仑电子电子驱动的非奇异电流源表示,电子脉冲响应是基于电子脉冲激励与实验室框架的样品结构的电磁模式的相互作用计算的,电子脉冲响应取决于体积 采样结构的介电常数和磁导率,采用有限差分时域法计算样品结构对电磁辐射激发的辐射响应。 辐射响应取决于样品结构的体积介电常数和磁导率,并且通过叠加电子脉冲响应和辐射响应来提供样品结构的电磁响应。 电磁响应包括与电磁辐射激发光子相互作用后的电子能量损失谱和/或经历电子波函数相位。 还描述了方法和测量装置。

    Lithography apparatus and device manufacturing method
    8.
    发明授权
    Lithography apparatus and device manufacturing method 失效
    平版印刷设备和器件制造方法

    公开(公告)号:US08618515B2

    公开(公告)日:2013-12-31

    申请号:US13162979

    申请日:2011-06-17

    Applicant: Koichi Sentoku

    Inventor: Koichi Sentoku

    Abstract: A lithography apparatus includes a first measurement device which measures a position of a mark on a substrate with light, a second measurement device which measures a position of a reference mark on a stage with a charged-particle, a detector which detects the position of the stage in a first direction parallel to the axis of a projection system and a second direction perpendicular to this axis, and a controller. The controller determines a charged-particle beam, in which the angle, with respect to the first direction, at which it is incident on the reference mark falls within a tolerance, and obtains a baseline for the first measurement device from the position of the reference mark measured by the second measurement device using the determined charged-particle beam and the position of the reference mark measured by the first measurement device.

    Abstract translation: 光刻设备包括:用光测量基板上的标记位置的第一测量装置,测量带有带电粒子的台上的参考标记的位置的第二测量装置;检测所述基板的位置的检测器; 在平行于投影系统的轴线的第一方向和垂直于该轴线的第二方向的第一方向上的台阶,以及控制器。 控制器确定带电粒子束,其中相对于其入射到参考标记上的第一方向的角度落在公差内,并从参考点的位置获得第一测量装置的基线 由第二测量装置使用确定的带电粒子束测量的标记和由第一测量装置测量的参考标记的位置。

    DETECTION APPARATUS, LITHOGRAPHY APPARATUS, CHARGED PARTICLE BEAM APPARATUS, AND ARTICLE MANUFACTURING METHOD
    9.
    发明申请
    DETECTION APPARATUS, LITHOGRAPHY APPARATUS, CHARGED PARTICLE BEAM APPARATUS, AND ARTICLE MANUFACTURING METHOD 审中-公开
    检测装置,光刻装置,充电颗粒光束装置和制品制造方法

    公开(公告)号:US20130265575A1

    公开(公告)日:2013-10-10

    申请号:US13853843

    申请日:2013-03-29

    Abstract: A detection apparatus includes an optical system including a polarization beam splitter and a quarter-wave plate. The optical system illuminates a mark via the polarization beam splitter and the quarter-wave plate in sequence, and directs light reflected from the mark via the quarter-wave plate and the polarization beam splitter in sequence towards a light-receiving element An airtight container configured to enclose therein at least part of the optical system includes, as a partition wall thereof, a light transmitting member arranged in an optical path between the polarization beam splitter and the quarter-wave plate.

    Abstract translation: 检测装置包括具有偏振分束器和四分之一波片的光学系统。 光学系统依次通过偏振分束器和四分之一波片照亮标记,并且将经过四分之一波片和偏振分束器的标记反射的光引导到光接收元件。配置的气密容器 为了封装在其中,光学系统的至少一部分包括作为其隔壁的布置在偏振分束器和四分之一波片之间的光路中的透光构件。

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