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
    • 11. 发明授权
    • Position detecting method and apparatus
    • 位置检测方法和装置
    • US5200800A
    • 1993-04-06
    • US892732
    • 1992-05-29
    • Shigeyuki SudaKenji SaitohMinoru YoshiiNoriyuki Nose
    • Shigeyuki SudaKenji SaitohMinoru YoshiiNoriyuki Nose
    • G03F9/00
    • G03F9/7076
    • A method of detecting a position of a substrate having an alignment mark includes the steps of projecting a radiation beam from an optical head to the alignment mark such that the alignment mark produces a signal beam on the basis of which the position of the substrate is detected, forming a reference mark on the substrate at a position different from that of the alignment mark, projecting a radiation beam from the optical head to the reference mark, such that the reference mark produces a reference beam, detecting the relative positional deviation of the optical head relative to the reference mark on the basis of the produced reference beam, and adjusting the relative position of the optical head and the alignment mark on the basis of the detected relative positional deviation and, after the adjustment, detecting the position of the substrate on the basis of the produced signal beam.
    • 检测具有对准标记的基板的位置的方法包括以下步骤:将来自光学头的辐射束投射到对准标记,使得对准标记产生信号光束,基于该信号光束检测基板的位置 在与所述对准标记不同的位置的基板上形成参考标记,将来自所述光学头的辐射束投射到所述基准标记,使得所述基准标记产生参考光束,检测所述光学器件的相对位置偏差 基于所生成的参考光束相对于参考标记的头部,并且基于检测到的相对位置偏差来调整光学头和对准标记的相对位置,并且在调整之后,检测基板的位置 产生信号光束的基础。
    • 13. 发明授权
    • Three-dimensional shape measuring apparatus
    • 三维形状测量仪
    • US5033856A
    • 1991-07-23
    • US517514
    • 1990-04-30
    • Noriyuki NoseYukichi Niwa
    • Noriyuki NoseYukichi Niwa
    • G01B11/24
    • G01B11/24
    • A three-dimensional shape measuring apparatus having a high performance and a reduced drive energy is disclosed. At least a portion of an in-focus state detection optical system having an internal light source is movable while maintaining a light path near an object lens of the optical system. A distance of movement of the movable portion which is moved with auto-focusing operation for an object is measured and the three-dimensional shape is measured precisely with a high stroke. An inclination angle measuring optical system which shares the light path near the object lens with the in-focus state detection optical system and has an internal light source is provided in a common casing. Thus, the distance of movement of the movable part of the in-focus state detection optical system and an inclination angle are simultaneously measured so that the three-dimensional shape can be more precisely measured.
    • 公开了具有高性能和降低的驱动能量的三维形状测量装置。 具有内部光源的聚焦状态检测光学系统的至少一部分可移动,同时保持靠近光学系统的物镜的光路。 测量用于物体的自动聚焦操作移动的可移动部分的移动距离,并且以高冲程精确地测量三维形状。 在共同的壳体内设置倾斜角度测量光学系统,该倾斜角度测量光学系统与聚焦状态检测光学系统共享物镜附近的光路并具有内部光源。 因此,可以同时测量对焦状态检测光学系统的可动部分的移动距离和倾斜角度,从而可以更精确地测量三维形状。
    • 18. 发明授权
    • Variable-focus optical element and focus detecting device utilizing the
same
    • 可变焦光学元件和利用其的焦点检测装置
    • US4802746A
    • 1989-02-07
    • US832649
    • 1986-02-25
    • Takeshi BabaShigeyuki SudaNoriyuki NoseEigo KawakamiToshiyuki NakajimaNobuo Kushibiki
    • Takeshi BabaShigeyuki SudaNoriyuki NoseEigo KawakamiToshiyuki NakajimaNobuo Kushibiki
    • G02B3/14G02B7/36
    • G02B7/36G02B3/14
    • A variable focus optical element comprises plural elastic members superposed in the axial direction and a deforming member having an aperture to cause the elastic member to protrude therefrom or descend therein thereby deforming the surface of the elastic members, and the modulus of elasticity of an elastic member at the protruding side is selected larger than that of another elastic member adjacent to first-mentioned elastic member at the protruding side. A focus detecting device comprises an imaging optical system having a variable-focus optical element, an image sensor provided at a determined image plane of the imaging optical system or an optically equivalent position, a sharpness detecting device for detecting the sharpness of the image from image signals obtained from the image sensor, and a device for varying the refractive power of the variable-focus optical element, and the focus state of the image on the image sensor is detected by comparing the sharpnesses detected by the sharpness detecting device at plural refractive powers of the variable-focus optical element.
    • 可变焦距光学元件包括沿轴向重叠的多个弹性构件和具有孔的变形构件,以使弹性构件从其突出或下降,从而使弹性构件的表面变形,并且弹性构件的弹性模量 在突出侧的突出侧被选择为大于在突出侧与第一弹性构件相邻的另一个弹性构件的突出侧。 焦点检测装置包括具有可变焦点光学元件的成像光学系统,设置在成像光学系统的确定的图像平面上的图像传感器或光学等效位置,用于从图像中检测图像的清晰度的锐度检测装置 通过将由锐度检测装置检测的锐度与多个折射力进行比较来检测从图像传感器获得的信号和用于改变可变焦点光学元件的折射力的装置和图像在图像传感器上的聚焦状态 的可变焦光学元件。
    • 19. 发明授权
    • Position detecting method and apparatus
    • 位置检测方法和装置
    • US5148037A
    • 1992-09-15
    • US675059
    • 1991-03-26
    • Shigeyuki SudaSakae HouryuNoriyuki Nose
    • Shigeyuki SudaSakae HouryuNoriyuki Nose
    • G01B11/00G01B11/14G03F9/00H01L21/027H01L21/30
    • G03F9/7049
    • A method and apparatus for detecting a positional relationship between first and second objects is disclosed, which includes a light source for projecting light to the first and second objects, a photodetecting system for detecting light from one of the first and second objects irradiated with the light from the light source, the detecting system being operable to detect first light whose position of incidence upon a predetermined plane is dependent upon the positional relationship of the first and second objects in a direction along the interval therebetween and in a direction perpendicular to the interval, second light whose position of incidence upon the predetermined plane is dependent upon the positional relationship of the first and second objects in the direction of the interval therebetween, and third light whose position of incidence upon the predetermined plane is independent of the positional relationship of the first and second objects in both the direction of the interval and the direction perpendicular to the interval, and a positional relationship detecting system for detecting the positional relationship of the first and second objects in the direction of the interval and the direction perpendicular to the interval, on the basis of the detection by the photodetecting system.