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    • 1. 发明授权
    • Field emission type cold cathode structure and electron gun using the cold cathode
    • 场致发射型冷阴极结构和电子枪采用冷阴极
    • US06680564B2
    • 2004-01-20
    • US09812692
    • 2001-03-21
    • Kaoru Tomii
    • Kaoru Tomii
    • H01J2946
    • H01J3/022H01J1/3044
    • A field emission type cold cathode structure and an electron gun using the cathode are provided. The electron gun is capable of preventing electron emission error due to impurities etc. The electron gun includes a fusible metal layer formed between a base electrode and each emitter chip, a focus electrode formed on the upper portion of a gate electrode with an insulating layer therebetween, and a control electrode formed on the upper portion of a focus electrode with an insulating layer therebetween. The electron gun so constructed can reduce power for heating the cathode, display data and a picture instantly on a screen, simplify a structure of an electron lens etc. focusing an electron beam, and improving precision in electron gun assembly.
    • 提供场发射型冷阴极结构和使用该阴极的电子枪。 电子枪能够防止由于杂质等引起的电子发射误差。电子枪包括形成在基极和每个发射极芯片之间的可熔金属层,形成在栅极上部的聚焦电极,其间具有绝缘层 以及在聚焦电极的上部形成有绝缘层的控制电极。 这样构成的电子枪可以减少加热阴极的功率,在屏幕上立即显示数据和图像,简化聚焦电子束的电子透镜等的结构,提高电子枪组装的精度。
    • 5. 发明授权
    • Flat type cathode ray tube
    • 平板式阴极射线管
    • US4622497A
    • 1986-11-11
    • US708898
    • 1985-03-06
    • Hiroshi MiyamaYoshikazu KawauchiKaoru TomiiJun Nishida
    • Hiroshi MiyamaYoshikazu KawauchiKaoru TomiiJun Nishida
    • H01J31/12H01J29/70H01J29/72
    • H01J31/126
    • In a flat type cathode ray tube having a small depth relative to an image screen size, electron beams which are generated by heating vertically extending linear thermal cathodes are sequentially and vertically switched by a plurality of vertical scanning electrodes extending vertically and arranged perpendicularly to the linear thermal cathodes, are transmitted through an electron beam generating electrode having apertures formed therein corresponding to the linear thermal cathodes. The electron beams are horizontally deflected by horizontal deflection electrodes, and then directed to a phosphor layer on an image area of a faceplate. The electron beams are modulated by applying a modulation pulse voltage together with a heating D.C. voltage to the linear thermal cathodes, or by applying a modulation pulse signal to a modulation electrode arranged close to the electron beam generating electrode. A large image screen size is attained by the provision of the plurality of vertically extending linear thermal cathodes.
    • 在相对于图像屏幕尺寸具有较小深度的平面型阴极射线管中,通过垂直延伸的线性热阴极加热产生的电子束通过垂直延伸并垂直于线性放置的多个垂直扫描电极被顺序地和垂直切换 热阴极通过其中形成有对应于线性热阴极的孔的电子束产生电极传输。 电子束由水平偏转电极水平偏转,然后被引导到面板的图像区域上的荧光体层。 通过将调制脉冲电压与加热直流电压一起施加到线性热阴极,或通过将调制脉冲信号施加到靠近电子束产生电极布置的调制电极来调制电子束。 通过设置多个垂直延伸的线性热阴极可获得大的图像屏幕尺寸。
    • 6. 发明授权
    • Flat configuration image display apparatus and manufacturing method
thereof
    • 平面配置图像显示装置及其制造方法
    • US5160871A
    • 1992-11-03
    • US536849
    • 1990-06-12
    • Kaoru TomiiAkira Kaneko
    • Kaoru TomiiAkira Kaneko
    • G09G3/22H01J9/14H01J9/18H01J29/02H01J31/12
    • H01J9/148G09G3/22H01J29/028H01J31/127H01J9/185H01J2329/8625H01J2329/863H01J2329/8635
    • A flat configuration image display apparatus electron beam generator equipped with cold cathodes for generating a plurality of electron beams in response to image signals fed from an image signal supply circuit, and electron beam control electrodes for selectively energizing the cold cathodes of the electron beam generator in accordance with a scanning line selection signal. The electron beam generator is further equipped with at least an array of n base electrodes extending in vertical directions of a screen of the image display apparatus where n is an integer equal to or greater than 3, and a predetermined number of the cold cathodes are disposed on each of the base electrodes. The image signals are independently applied through terminal leaders to the base electrodes, the terminal leaders being led up to outsides of a vacuum housing of the image display apparatus. The electron control electrodes are divided into a plurality of groups each of which are responsive to the scanning line selection signal through a common bus.
    • 具有冷阴极的平面配置图像显示装置电子束发生器,用于响应于从图像信号供给电路馈送的图像信号产生多个电子束,以及电子束控制电极,用于选择性地激励电子束发生器的冷阴极 根据扫描线选择信号。 电子束发生器还配备有n个基极电极的阵列,n个基底电极在图像显示装置的屏幕的垂直方向上延伸,其中n是等于或大于3的整数,并且预定数量的冷阴极被布置 在每个基极上。 图像信号通过端子引导件独立地施加到基极,端子引线被引导到图像显示装置的真空壳体的外侧。 电子控制电极被分成多个组,每个组通过公共总线响应扫描线选择信号。
    • 7. 发明授权
    • Flat panel type display and method for driving the display
    • 平板显示器和驱动显示器的方法
    • US5117159A
    • 1992-05-26
    • US431413
    • 1989-11-03
    • Kaoru TomiiHiroshi MiyamaYoshikazu KawauchiJun Nishida
    • Kaoru TomiiHiroshi MiyamaYoshikazu KawauchiJun Nishida
    • G09G1/20H01J31/12
    • G09G1/20H01J31/124
    • A flat panel type display provided with a screen, control electrodes divided in a horizontal direction of the screen, light emitting fluorescent material formed on the control electrodes, a mesh-like electrode, scanning electrodes each divided in a vertical direction of the screen and facing the mesh-like electrode, an electron source for generating electron beams in the horizontal direction of the screen and deflection unit for deflecting the beams in the vertical direction. The deflection unit is provided with a signal supply device for applying first and second voltage levels to each scanning electrode. The first voltage level is at a level similar to that applied to the control or mesh-like electrode. The second voltage level is substantially less than the first voltage level. The second voltage level is sequentially applied to each scanning electrode during a vertical scan, for a fixed time period at least as long as the time required for vertically scanning a distance in which a path of an electron reflected from a position of beam incidence with the fluorescent material becomes substantially parallel to the scanning electrodes. The time period between the start of each sequential application of the second voltage level to each successive scanning electrode is a predetermined amount which differs from the fixed time period of the second voltage level.