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    • 7. 发明申请
    • IMAGE-CAPTURING APPARATUS, IMAGE-CAPTURING METHOD, DISPLAY APPARATUS, AND DISPLAY METHOD
    • 图像捕获装置,图像捕获方法,显示装置和显示方法
    • US20100053309A1
    • 2010-03-04
    • US12483371
    • 2009-06-12
    • Tetsujiro KONDOKenji TANAKA
    • Tetsujiro KONDOKenji TANAKA
    • H04N13/02G06F13/14
    • G02B27/2214G02B27/2235H04N13/189H04N13/194H04N13/225H04N13/229H04N13/232H04N13/243H04N13/305H04N13/307H04N13/31H04N13/363
    • The present invention provides full-parallax images having high spatial resolution in real time. An image-capturing optical unit (21) includes a plurality of prismatic mirrors (41) which rotate at a predetermined period. The side surface of each of the prismatic mirrors (41) reflects a light beam from an object. A camera receives the light beam from the object reflected by the prismatic mirrors (41) in order to capture an image of the object. On the other hand, a display optical unit (32) includes a plurality of prismatic mirrors (51) which rotate in phase with the prismatic mirrors (41) at the same period. A projector emits a light beam corresponding to the image of the object captured by the camera, and such a light beam is reflected by the prismatic mirrors (51). A user may view an image corresponding to the light beam reflected by the prismatic mirrors (51). The present invention, for example, can be applied to an image-capturing apparatus for capturing an image, and a display apparatus for displaying the image captured by the image-capturing apparatus.
    • 本发明实时提供具有高空间分辨率的全视差图像。 图像捕获光学单元(21)包括以预定周期旋转的多个棱镜(41)。 每个棱镜反射镜(41)的侧表面反射来自物体的光束。 照相机接收来自棱柱镜(41)反射的物体的光束,以便拍摄物体的图像。 另一方面,显示光学单元(32)包括在相同周期与棱镜镜(41)同相旋转的多个棱镜镜(51)。 投影仪发射对应于由照相机拍摄的物体的图像的光束,并且这样的光束被棱镜镜(51)反射。 用户可以观看与由棱镜镜(51)反射的光束相对应的图像。 例如,本发明可以应用于用于捕获图像的图像捕获装置和用于显示由图像捕获装置捕获的图像的显示装置。
    • 10. 发明申请
    • MAGNETIC RECORDING MEDIUM
    • 磁记录介质
    • US20120045664A1
    • 2012-02-23
    • US13211051
    • 2011-08-16
    • Kenji TANAKAMasao FujitaSadamu Kuse
    • Kenji TANAKAMasao FujitaSadamu Kuse
    • G11B5/70G11B5/714G11B5/71
    • G11B5/71G11B5/70615G11B5/70626G11B5/714G11B5/738G11B5/78
    • A magnetic recording medium of the present invention is a magnetic recording medium including a non-magnetic substrate; a non-magnetic layer that is formed on one of principal surfaces of the non-magnetic substrate and contains a non-magnetic powder, a binder, and a lubricant; and a magnetic layer that is formed on a principal surface of the non-magnetic layer opposite to the non-magnetic substrate and contains a magnetic powder and a binder. The magnetic powder has an average particle size between 10 inn and 35 nm inclusive. The lubricant is migratable to the magnetic layer and forms a lubricant layer on a surface of the magnetic layer when a pressure is applied to the magnetic layer. When spacing of the surface of the magnetic layer before and after washing the lubricant with n-hexane is measured with a TSA (Tape Spacing Analyzer), the value of the spacing after washing is 3 to 10 nm, and the value of the spacing before washing is 1 to 5 nm smaller than the value of the spacing after washing.
    • 本发明的磁记录介质是包括非磁性基片的磁记录介质; 非磁性层,其形成在所述非磁性基板的一个主表面上并且包含非磁性粉末,粘合剂和润滑剂; 以及形成在与非磁性基板相对的非磁性层的主表面上并且包含磁性粉末和粘合剂的磁性层。 该磁性粉末的平均粒径为10至35纳米(含)。 当向磁性层施加压力时,润滑剂可移动到磁性层并在磁性层的表面上形成润滑剂层。 当使用TSA(胶带间隔分析仪)测量用正己烷洗涤润滑剂之前和之后的磁性层表面的间隔时,洗涤后的间隔值为3至10nm,并且之前的间隔值 洗涤比洗涤后的间隔值小1〜5nm。