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    • 5. 发明专利
    • Plasma display device
    • 等离子体显示设备
    • JP2009217941A
    • 2009-09-24
    • JP2008057164
    • 2008-03-07
    • Hitachi Ltd株式会社日立製作所
    • NOBUKI SHUNICHIROUEMURA NORIHIROSAGAWA MASAKAZUSUZUKI KEIZOMIKAMI YOSHIAKIMOMOSE HIDETOKA KIRIN
    • H01J11/12H01J11/22H01J11/24H01J11/26H01J11/28H01J11/34H01J11/36H01J11/38H01J11/40
    • H01J11/26H01J11/12H01J11/24H01J11/36H01J2211/245H01J2211/265H01J2211/365
    • PROBLEM TO BE SOLVED: To provide a PDP having little aging deterioration of address discharge delay and operating in a stable state, even when high definition is achieved. SOLUTION: A priming discharge region PDC partitioned form display discharge cells DDC by a lateral barrier plate 31T is provided on the side where second electrodes 23 between display discharge cells DDC adjacent to each other in a column direction adjoin to each other. A second longitudinal barrier plate 31L2 which extends on the extended line of a first longitudinal barrier plate 31L1, and partitions the priming discharge region PDC, and a third longitudinal barrier plate 31L3 which further partitions a region partitioned by the second longitudinal barrier plate 31L2 to two to form the discharge cell PDC are provided. A protruding electrode 23c extended from the adjoining second electrodes 31L2 to separate priming discharge cells PDC is provided on the side where two second electrodes 23 adjoining in the column direction face each other. A gap 35 which connects the display discharge cell DDC to the priming discharge cell PDC is provided. In a space region 70 in the shape of an almost rectangle containing adjoining two of the priming discharge cell PDC, the sum of its width in the row direction and the pattern width of the second longitudinal wall is made larger than the sum of its width in the column direction and the width of the lateral barrier plate pattern. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:即使实现高清晰度,也可以提供一种几乎不具有寻址放电延迟的老化劣化并且在稳定状态下工作的PDP。 解决方案:通过横向阻挡板31T显示放电单元DDC分隔的起动放电区域PDC设置在彼此相邻的显示放电单元DDC之间的列方向上彼此相邻的显示放电单元DDC之间的第二电极23的一侧。 第二纵向阻挡板31L2,其在第一纵向阻挡板31L1的延伸线上延伸并分隔起动放电区域PDC;以及第三纵向阻挡板31L3,其进一步将由第二纵向阻挡板31L2分隔开的区域划分为两个 以形成放电单元PDC。 从邻接的第二电极31L2延伸到分离的引发放电单元PDC的突出电极23c设置在与列方向相邻的两个第二电极23彼此面对的一侧。 提供了将显示放电单元DDC连接到起动放电单元PDC的间隙35。 在包含邻接的两个起动放电单元PDC的几乎为矩形的空间区域70中,使其行方向宽度和第二纵壁的图案宽度之和大于其宽度之和 横向阻挡板图案的列方向和宽度。 版权所有(C)2009,JPO&INPIT
    • 6. 发明专利
    • Plasma display device
    • 等离子体显示设备
    • JP2009217940A
    • 2009-09-24
    • JP2008057163
    • 2008-03-07
    • Hitachi Ltd株式会社日立製作所
    • INOUE AKIRATSUJI KAZUTAKAKOMATSU MASAAKIMIYAKE TATSUYAMOMOSE HIDETOMORI SHUNSUKEKA KIRINSUZUKI KEIZO
    • H01J11/22H01J11/24H01J11/34H01J11/40H01J11/50
    • PROBLEM TO BE SOLVED: To provide a plasma display device having a superior discharge response.
      SOLUTION: The plasma display device includes a front-side substrate and a rear-side substrate which are arranged oppositely through a discharge space. On the front-side substrate, a pair of display electrodes which are constructed of a first electrode and a second electrode and perform opposed display discharge, a dielectric film for cover at least partially the first electrode and the second electrode, and a protective film to cover the dielectric film are arranged. On the rear-side substrate, a fluorescent film which generates visible light by excitation by ultraviolet light generated by discharge of a discharge gas, and an address electrode which is installed in a direction to cross the pair of display electrodes are arranged. The protective film has a first protective film region and a second protective film region of which the main component is mutually common and the impurity elements with a most content weight are mutually different. Accordingly, the plasma display device has a superior discharge response.
      COPYRIGHT: (C)2009,JPO&INPIT
    • 解决的问题:提供具有优异的放电响应的等离子体显示装置。 解决方案:等离子体显示装置包括相对于放电空间布置的前侧基板和后侧基板。 在前侧基板上,由第一电极和第二电极构成的一对显示电极进行相对的显示放电,至少部分地覆盖第一电极和第二电极的绝缘膜,以及保护膜 覆盖电介质膜布置。 在后侧基板上,配置有通过由放电气体放电而产生的紫外线的激发而产生可见光的荧光膜,以及与该一对显示电极交叉的方向安装的寻址电极。 保护膜具有第一保护膜区域和第二保护膜区域,其主要成分相互共同,并且具有最大含量的杂质元素彼此不同。 因此,等离子体显示装置具有优异的放电响应。 版权所有(C)2009,JPO&INPIT
    • 9. 发明专利
    • Ceramic resistor
    • 陶瓷电阻
    • JP2004235392A
    • 2004-08-19
    • JP2003021641
    • 2003-01-30
    • Hitachi Ltd株式会社日立製作所
    • TANAKA SHIGERUSAWAI YUICHIMIYATA MOTOYUKIKAJI KAZUTOSHIMOMOSE HIDETO
    • H01C7/00H02B13/02
    • PROBLEM TO BE SOLVED: To provide a high characteristic ceramic resistor which improves the reliability of equipment to be composed of the ceramic resistor by suppressing the change of its electric resistance in the case of the application of a high voltage. SOLUTION: The resistor is a resistor of which electric resistance conforms to Ohm's law, and is composed of a ceramic which contains CuO, MgO and ZnO as constituting components. The resistance change at the high voltage applying time or after the high voltage is repeatedly applied and further the degree of the resistance change due to the change of the ambient temperature are suppressed to an extremely small value by adopting the CuO, the MgO and the ZnO as indispensable components in the ceramic resistor. COPYRIGHT: (C)2004,JPO&NCIPI
    • 要解决的问题:提供一种高特性陶瓷电阻器,其通过在施加高电压的情况下抑制其电阻的变化来提高由陶瓷电阻器构成的设备的可靠性。

      解决方案:电阻是电阻符合欧姆定律的电阻,由含有CuO,MgO和ZnO作为构成成分的陶瓷组成。 在高电压施加时间或高电压后的电阻变化被重复施加,并且通过采用CuO,MgO和ZnO,将由于环境温度的变化引起的电阻变化的程度进一步抑制到极小的值 作为陶瓷电阻器中必不可少的部件。 版权所有(C)2004,JPO&NCIPI

    • 10. 发明专利
    • POLARIZATION MODULATING INFRARED SPECTROSCOPE
    • JPH0545224A
    • 1993-02-23
    • JP20915491
    • 1991-08-21
    • HITACHI LTD
    • MOMOSE HIDETOTOCHIGI KENJI
    • G01J3/28G01N21/21G01N21/35
    • PURPOSE:To obtain a spectroscope, in which light loss is reduced and polarization modulation is performed effectively and of which operation is facilitated, by using a step-scan type coherent infrared spectroscope, and rotating a polarizer to take out the polarization modulated infrared rays. CONSTITUTION:Infrared rays generated from a light source 1 pass through a wire-grid type infrared polarizer 2, which is rotated at a constant revolutional speed, and is polarization modulated, and enter the sample 3, of which a solid substrate is coated with a thin film. Infrared rays reflected by the sample 3 pass through a coherent optical system, which consists of a beam splitter 4, a fixed mirror 5, and a movable mirror 6 to be moved intermittently step by step, and are detected by a detector 7. Since the detector 7 is operated under the ordinary temperature condition, a pyroelectric detector, of which operation is facilitated and which has the excellent linear responsiveness, can be used. Fourier transform is performed to a sequence of the data detected at each step-like stop point of the movable mirror 6 to obtain a spectrum of the sample 3. Since most of absorption of the infrared rays by elements except the sample 3 is isotropic to the polarization, a background component except the sample can be eliminated.