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    • 4. 发明专利
    • Analyzer
    • 分析仪
    • JP2008039522A
    • 2008-02-21
    • JP2006212403
    • 2006-08-03
    • Horiba LtdToyota Motor Corpトヨタ自動車株式会社株式会社堀場製作所
    • HIRAMATSU TAKAYOSAGAMI HIROOMIZOE HIDEAKIKOMATANI SHINTAROOHORI KENICHIFUJIMOTO TORUNISHIKATA YASUHIRO
    • G01N23/223G01N21/35G01N21/3563
    • PROBLEM TO BE SOLVED: To provide an analyzer capable of preventing the shift of an analyzing position and the loss of an object to be irradiated when X-ray analysis and infrared analysis are respectively performed to perform X-ray analysis with high precision. SOLUTION: The analyzer is equipped with a sample stage 10 having a mount part 12 on which the sample 20 is mounted, an X-ray analyzing unit having a fluorescent X-ray detector provided with a first polycapillary lens 48 for emitting X rays and a second polycapillary lens for detecting secondary X rays, an infrared irradiation unit 30 for emitting infrared rays, an infrared ray detection unit 34 for detecting infrared rays, a moving device for moving the sample stage 10 to a position where the mount part 12 is irradiated with X rays from the X-ray analyzing unit or moving the sample stage 10 to a position where the mount part 12 is irradiated is irradiated with infrared rays from the infrared irradiation unit 30 and a pressure rod 22 for pressing the sample 20 to the mount part 12 in the state that the sample stage 10 is moved to the position where the mount part 12 is irradiated with the infrared rays from the infrared irradiation unit 30. COPYRIGHT: (C)2008,JPO&INPIT
    • 要解决的问题:为了提供能够防止分析位置的偏移和当分别进行X射线分析和红外分析时要照射的物体的损失的分析仪以高精度进行X射线分析 。 解决方案:分析仪配备有具有安装部件12的样品台10,样品20安装在其上的X射线分析单元,具有荧光X射线检测器,该荧光X射线检测器设置有用于发射X的第一多毛细透镜48 用于检测次X射线的第二多毛细透镜,用于发射红外线的红外线照射单元30,用于检测红外线的红外线检测单元34,用于将样品台10移动到安装部12的位置的移动装置 用X射线分析装置的X射线照射或将样品台10移动到照射了安装部分12的位置,红外线照射单元30和用于将样品20按压的压力杆22照射到红外线 在安装部分12处于样品台10移动到安装部分12被来自红外辐射单元30的红外线照射的位置的状态。(C)2008,JPO和INPIT
    • 6. 发明专利
    • Field emission type electron gun
    • 场发射型电子枪
    • JP2005026026A
    • 2005-01-27
    • JP2003189071
    • 2003-06-30
    • Horiba Ltd株式会社堀場製作所
    • AWATA SHOGOOKADA YOSHIAKIOHORI KENICHI
    • H01J37/067
    • PROBLEM TO BE SOLVED: To provide a field emission type electron gun free from complicated alignment work and possible to be miniaturized and simplified in structure.
      SOLUTION: A cathode 1 and an extractor 3 are unified to form a structure 6, and the structure 6 and an anode 4 are respectively provided with fitting parts 19 and 21. Positioning of the structure 6 and the anode 4 is performed by a positioning member 17 formed with a first fitting part 18 and a second fitting part 20 having dimension considering a coefficient of thermal expansion so that these fitting parts can be fitted to the fitting parts 19 and 21 without generating looseness when operating.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供一种没有复杂对准工作的场发射型电子枪,并且可以小型化和简化结构。 解决方案:阴极1和提取器3被一体化以形成结构6,结构6和阳极4分别设有配件部分19和21.结构6和阳极4的定位由 定位构件17,其形成有第一装配部分18和第二装配部分20,其具有考虑到热膨胀系数的尺寸,使得这些装配部件可以在操作时不产生松动而被装配到装配部分19和21。 版权所有(C)2005,JPO&NCIPI
    • 7. 发明专利
    • X-RAY ANALYZER
    • JPH03152448A
    • 1991-06-28
    • JP29188189
    • 1989-11-09
    • HORIBA LTD
    • HOSOKAWA YOSHINORIOHORI KENICHIARAI SHIGETOSHI
    • G01N23/00
    • PURPOSE:To enable three-dimensional measurement of an external shape or an internal structure in a minute structure by providing a sample stage in a high vacuum chamber so that it can be displaced in the three-dimensional direction, by setting a sample thereon and by applying a fine-bundle electron beam to the sample. CONSTITUTION:A sample stage 2 which can be displaced in the three-dimensional direction is provided inside a high vacuum chamber 1 made of iron, for instance. A sample (e.g. LSI) S is set, as it is, on the upper surface of the stage 2. When an electron beam is emitted from an electron beam generating element 3, it is turned to be a fine-bundle electron beam SB by the operations of a condenser lens 4, and electron beam scanning element 5 and an objective lens 6 and applied to the sample S. A transmitted X-ray PX transmitted through the sample S, out of X-rays generated when the electron beam SB strikes on the samples S, falls on the detecting surface of an X-ray detector (e.g. a semiconductor X-ray detector, three units of which are provided below the stage 2 with appropriate spacing therefrom) 9. by displacing the stage 2 three-dimensionally on the occasion, the X-ray PX passes through each part of the sample S, and therefore the external shape or the internal structure of the sample S can be measured three-dimensionally.
    • 10. 发明专利
    • METHOD FOR IDENTIFYING MATERIAL CONTAINED IN SAMPLE AND METHOD FOR MEASURING ITS DISTRIBUTION
    • JPH0886762A
    • 1996-04-02
    • JP24884594
    • 1994-09-16
    • HORIBA LTD
    • OHORI KENICHIBANDO ATSUSHIYURUGI TOSHIKAZU
    • G01N23/225H01J37/256
    • PURPOSE: To enable directly identifying the constituent materials of a sample without performing spectrum analysis and element identification for each of the materials by originating a characteristic X-ray image, a computed image and a scatter diagram for each of the elements of the sample, and comparing a preregistered material with data on the scatter diagram. CONSTITUTION: A sample 3 is scanned and illuminated by an electron beam 4. Characteristic X-rays 8 are detected 7 and the number of the X-rays 8 is counted 9. As the counted value of the X-rays 8 is stored 11, characteristic X-ray images are obtained. An appropriate combination of coefficients is calculated 12 and the characteristic X-ray images are multiplied by the coefficients and then added together to originate computed images. A scatter diagram showing the correlation between two of the computed images is originated 12. From a standard spectrum stored on a disk, the computing unit 12 calculates the characteristic X-ray intensity of an element corresponding to the characteristic X-ray image and calculates coordinates on the scatter diagram. A display device 13 determines whether or not the coordinates of the region of the scatter diagram overlap signs; if so, a material A shown in the spectrum is judged to be present in the sample 3.