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    • 1. 发明授权
    • Electron microscope image output method and apparatus
    • 电子显微镜图像输出方法和装置
    • US4873440A
    • 1989-10-10
    • US137691
    • 1987-12-24
    • Nobufumi MoriTakayuki KatohTetsuo OikawaYoshiyasu HaradaJunji Miyahara
    • Nobufumi MoriTakayuki KatohTetsuo OikawaYoshiyasu HaradaJunji Miyahara
    • H01J37/22H01J37/26
    • H01J37/224
    • In a system for outputting an electron microscope image, a two-dimensional sensor for storing electron beam energy thereon is exposed to an electron beam passing through a specimen in a vacuum to have the electron beam energy stored on the two-dimensional sensor, and is then exposed to light or heat to release the stored energy as light emission. The emitted light is photoelectrically detected to obtain image signals, and an electron beam image of the specimen is output on the basis of the image signals. The specimen is divided into a plurality of divisions, and the storage of the electron beam energy is carried out for each of the divisions. The image signals obtained at the divisions are combined to form composite image signals that represent an overall specimen image formed by a group of the divisions, and the image signals at the divisions are corrected so that signal values of the boundary areas of adjacent divisions become approximately equal to each other.
    • 在用于输出电子显微镜图像的系统中,用于在其上存储电子束能的二维传感器暴露于在真空中通过样本的电子束,以将电子束能量存储在二维传感器上,并且是 然后暴露于光或热以释放储存的能量作为发光。 发射的光被光电检测以获得图像信号,并且基于图像信号输出样本的电子束图像。 样本被分成多个部分,并且对于每个部分执行电子束能量的存储。 在分割处获得的图像信号被组合以形成表示由一组分割形成的总体样本图像的合成图像信号,并且校正分割处的图像信号,使得相邻分区的边界区域的信号值变为约 相等。
    • 3. 发明授权
    • Electron microscope image recording and read-out method
    • 电子显微镜图像记录和读出方法
    • US5006707A
    • 1991-04-09
    • US467479
    • 1990-01-19
    • Nobufumi MoriMasahiro OhnishiJunji MiyaharaTetsuo OikawaYoshiyasu Harada
    • Nobufumi MoriMasahiro OhnishiJunji MiyaharaTetsuo OikawaYoshiyasu Harada
    • G01T1/29H01J37/22H01J37/244
    • H01J37/224G01T1/2014H01J2237/2443
    • Each of two-dimensional sensors is exposed to an electron beam, which has passed through a sample, in a vacuum in order to store the energy from the electron beam on the two-dimensional sensor, and is then exposed to light or heat in order to release the stored energy as emitted light. The emitted light is photoelectrically detected and an image signal is thereby obtained which represents an electron microscope image of the sample. Read-out conditions which are to be used when the emitted light is detected are determined from an electron beam exposure amount which was set when the energy from the electron beam was stored on each two-dimensional sensor. Signals representing the read-out conditions determined for the two-dimensional sensors are stored in a storage device so that it is clear which read-out conditions correspond to which two-dimensional sensor. When light emitted by a two-dimensional sensor is to be detected, a signal which represents the read-out conditions corresponding to the two-dimensional sensor is read from the storage device, and the read-out conditions are set.
    • 每个二维传感器在真空中暴露于已经通过样品的电子束,以将来自电子束的能量存储在二维传感器上,然后依次暴露于光或热 释放存储的能量作为发射光。 发射的光被光电检测,并且由此获得表示样品的电子显微镜图像的图像信号。 当检测到发射光时使用的读出条件是根据在每个二维传感器上存储来自电子束的能量而设定的电子束曝光量来确定的。 表示为二维传感器确定的读出条件的信号被存储在存储装置中,使得清楚哪个读出条件对应于哪个二维传感器。 当要检测由二维传感器发出的光时,从存储装置中读取表示与二维传感器对应的读出条件的信号,并设定读出条件。
    • 4. 发明授权
    • Transmission-type electron microscope
    • 透射型电子显微镜
    • US4801801A
    • 1989-01-31
    • US59501
    • 1987-06-08
    • Nobufumi MoriJunji MiyaharaTetsuo OikawaYoshiyasu Harada
    • Nobufumi MoriJunji MiyaharaTetsuo OikawaYoshiyasu Harada
    • H01J37/147H01J37/22H01J37/26G01N23/04
    • H01J37/224H01J37/26
    • A transmission-type electron microscope comprises a lens system including an electron gun for producing an electron beam that is focused and directed to a specimen. The lens system forms a magnified electron optical image of the specimen from the electron beam transmitted through the specimen. A two-dimensional sensor is mounted in the plane in which the magnified image is formed, the sensor acting to store the energy of the electron beam impinging on it and to release the stored energy as light when illuminated with light or heated. An electron beam-deflecting means is mounted in the lens system and acting to tilt the focal plane in which the magnified lens image is formed, in such a way that a straight line extending from the main optical axis of the electron beam between the electron gun and the specimen does not interset the two-dimensional sensor.
    • 透射型电子显微镜包括透镜系统,该透镜系统包括用于产生聚焦并指向样本的电子束的电子枪。 透镜系统从通过样品的电子束形成样品的放大电子光学图像。 二维传感器安装在其中形成放大图像的平面中,传感器用于存储电子束的能量照射在其上,并在用光照射或加热时将其作为光释放。 电子束偏转装置安装在透镜系统中,用于使形成放大透镜图像的焦平面倾斜,使得从电子枪的主光轴延伸的直线在电子枪 样品不会混合二维传感器。
    • 5. 发明授权
    • Transmission-type electron microscope
    • 透射型电子显微镜
    • US4633085A
    • 1986-12-30
    • US722778
    • 1985-04-12
    • Takeshi TomitaYoshiyasu HaradaKimio Ohi
    • Takeshi TomitaYoshiyasu HaradaKimio Ohi
    • H01J37/10H01J37/141H01J37/26H01J37/252
    • H01J37/26H01J37/141
    • An electron microscope having plural stages of focusing lenses between an objective lens and an electron gun. The magnetic pole piece of the focusing lens of the final stage which is on the side of the objective lens takes a conic form which tapers toward the objective lens. The yoke of the objective lens on the side of the focusing lenses is centrally provided with a conic recess. This structure makes it possible to shorten the distance between the position of the magnetic field produced by an auxiliary lens and the front focal point defined by a front objective lens without introducing interference between the focusing lens of the final stage and the object lens proper. Thus, the observation of an electron micrograph covering a wide field of view facilitates accurate analysis of the physical properties of a designated microscopic region on a specimen.
    • 一种具有在物镜和电子枪之间具有多级聚焦透镜的电子显微镜。 位于物镜侧的最后级的聚焦透镜的磁极片呈圆锥形,朝向物镜逐渐变细。 在聚焦透镜一侧的物镜的轭在中央设置有圆锥凹槽。 这种结构使得可以缩短由辅助透镜产生的磁场的位置与由前物镜限定的前焦点之间的距离,而不会引起最终级的聚焦透镜与物镜本体之间的干涉。 因此,观察覆盖宽视野的电子显微镜有助于准确分析样品上指定的微观区域的物理性质。