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    • 21. 发明授权
    • Optical device inspecting apparatus
    • 光学装置检查装置
    • US08159659B2
    • 2012-04-17
    • US12515213
    • 2007-11-09
    • Shigemi OsawaKazuma Komuro
    • Shigemi OsawaKazuma Komuro
    • G01B9/00
    • G01R1/07342G01M11/0214G01M11/0257G01N21/956G01R31/2641G01R31/308
    • [PROBLEMS] To provide an optical device inspecting apparatus which can be set to take many objects at one time more freely compared with conventional apparatuses, and furthermore, can accurately inspect even an optical device wherein an optical sensor is offset from a microlens. [MEANS FOR SOLVING PROBLEMS] Provided is an optical device inspecting apparatus having a probe card unit and a lens unit. The probe card unit is provided with a main substrate, a guide plate and a probe. Openings are made on the main substrate and the guide plate. The guide plate is fixed at a prescribed position from the main substrate, and is provided with a plurality of probe inserting holes. The probe is inserted into the probe inserting hole on the guide plate and fixed. The leading end portion of the probe protruding from the inserting hole has a shape of a cantilever. The lens unit using a pupil lens is arranged at the opening on the main substrate, and makes light applied to an inspecting object incline as the light goes further from the center of the optical system.
    • 本发明提供一种光学装置检查装置,与以往的装置相比,可以更自由地设置多个物体,另外,即使是光学传感器偏离微透镜的光学装置,也能够精确地检查。 解决问题的手段提供一种具有探针卡单元和透镜单元的光学装置检查装置。 探针卡单元设置有主基板,引导板和探针。 在主基板和引导板上形成开口。 引导板从主基板固定在规定位置,并且设置有多个探针插入孔。 将探针插入导板上的探针插入孔中并固定。 从插入孔突出的探针的前端部具有悬臂的形状。 使用瞳孔透镜的透镜单元布置在主基板上的开口处,并且当光从光学系统的中心进一步延伸时,施加到检查对象的光倾斜。
    • 25. 发明申请
    • MEASUREMENT METHOD AND EXPOSURE APPARATUS
    • 测量方法和曝光装置
    • US20090268181A1
    • 2009-10-29
    • US12419931
    • 2009-04-07
    • Taro TezukaYoshiyuki Kuramoto
    • Taro TezukaYoshiyuki Kuramoto
    • G03B27/42G01B11/02G03B27/54
    • G01B11/002G01M11/0214G01M11/0257G03F7/706
    • A method of measuring an optical characteristic of an optical system using a measurement apparatus, comprises determining a position of each of object points by arranging, on a side of the object plane, an object point measurement device array, and sequentially inserting the object point measurement devices in an optical path, determining a position of each of image points by arranging, on a side of the image plane, an image point measurement device array, and sequentially inserting the image point measurement devices in the optical path, calculating an error attributed to the measurement apparatus based on the positions of object points and the positions of the image points, obtaining a measured value by measurement to obtain information representing the optical characteristic of the optical system using the measurement apparatus, and correcting the measured value based on the error.
    • 一种使用测量装置测量光学系统的光学特性的方法包括:通过在对象平面的一侧布置物点测量装置阵列,并依次插入物体点测量来确定每个物体点的位置 在光路中的装置,通过在图像平面的一侧布置图像点测量装置阵列,并且将图像点测量装置顺序地插入光路中来计算每个图像点的位置,计算归因于 基于物点的位置和图像点的位置的测量装置,通过测量获得测量值以获得表示使用测量装置的光学系统的光学特性的信息,并且基于误差校正测量值。
    • 28. 发明申请
    • Method of measuring decentering of lens
    • 测量透镜偏心的方法
    • US20060209294A1
    • 2006-09-21
    • US11378699
    • 2006-03-17
    • Yasunori Murata
    • Yasunori Murata
    • G01B9/00
    • G01M11/0221G01M11/0214G01M11/025
    • Disclosed is a measuring method which can measure the decentering of an axis by the measurement of a two-dimensional curved surface profile. This method has a first step of measuring a profile of a examined surface by a probe from a first reference position which is a position separate by a predetermined amount from a predetermined position on the examined surface of a subject lens, a second step of measuring the profile of the examined surface by scanning the examined surface by the probe from the second reference position which is a position separate by a predetermined amount from said predetermined position in a route opposite to the scanning direction of said first step after a rotation of the subject lens; and the step of obtaining the decentering amount of the examined surface by the use of the measurement results obtained at the first and second steps.
    • 公开了一种可以通过测量二维曲面轮廓来测量轴的偏心的测量方法。 该方法具有第一步骤,通过探针从第一参考位置测量被检查表面的轮廓,第一参考位置是与被检体镜片的被检查表面上的预定位置分开预定量的位置,第二步骤, 通过从第二基准位置扫描被检查表面的被检查表面的轮廓,该第二参考位置是在被摄体透镜旋转之后,在与第一台阶的扫描方向相反的路线中与所述预定位置分开预定量的位置 ; 以及通过使用在第一和第二步骤获得的测量结果来获得检查表面的偏心量的步骤。
    • 29. 发明授权
    • Endoscope test device
    • 内窥镜测试装置
    • US07022065B2
    • 2006-04-04
    • US10910074
    • 2004-08-03
    • Dennis C. LeinerMichael Bush
    • Dennis C. LeinerMichael Bush
    • A61B1/00
    • G01M11/0264A61B1/00057G01M11/00G01M11/0214H04N17/002H04N2005/2255
    • The invention uses optics and precision mechanisms to quantitatively assess the performance of medical endoscopes. By viewing standardized optical targets under well-controlled conditions, the optical quality of endoscopes can be easily determined in much the same fashion as getting one's eyes tested at the optometrist. The actual design, however, is much more complicated than your optometrist's eye chart and different types of endoscopes from different manufacturers require customization of the target geometry, the viewing distance, and the viewing angle. Also, there are several optical characteristics beyond image sharpness that need to be assessed, requiring other unique test geometries, including contrast, distortion, and vignetting. Clinically significant measurements are performed with simplicity and cost-effectiveness through the use of relatively inexpensive optical components and an embedded processor and graphical display system.
    • 本发明使用光学和精密机构来定量评估医用内窥镜的性能。 通过在良好控制的条件下观察标准化的光学目标,可以以与验光师测试眼睛大致相同的方式容易地确定内窥镜的光学质量。 然而,实际设计比您的验光师眼图复杂得多,不同制造商的不同类型的内窥镜需要定制目标几何,观看距离和视角。 此外,除了图像清晰度之外,还需要对其进行评估,需要其他独特的测试几何,包括对比度,失真和渐晕等几种光学特性。 通过使用相对便宜的光学元件和嵌入式处理器和图形显示系统,以简单和成本效益来进行临床重要的测量。