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    • 4. 发明专利
    • Manufacturing method of electrode for solid electrolyte
    • 固体电解电极的制造方法
    • JP2003282077A
    • 2003-10-03
    • JP2002080098
    • 2002-03-22
    • Furuya Kinzoku:KkTakashi GotoTeiichi Kimura孝 後藤禎一 木村株式会社フルヤ金属
    • SUZUKI SOYAMADA MICHIOGOTO TAKASHIKIMURA TEIICHI
    • G01N27/409G01N27/41H01M4/88H01M8/02H01M8/12
    • Y02P70/56
    • PROBLEM TO BE SOLVED: To provide a manufacturing method of an electrode for solid electrolyte, in which the electrode that has fine structure, can be formed, by which the primary properties of ruthenium oxide can be demonstrated and maintained to the maximum extent, in order to maintain demanded physical properties, such as high conductivity, high corrosion resistance, and high catalytic activity even at high operating temperature, paying attention to ruthenium oxide as an electrode material for solid electrolyte. SOLUTION: The manufacturing method of the electrode for solid electrolyte consists of a process in which dipybaloylmethanato ruthenium is used as a raw material and a heating evaporation of this raw material is carried out, a process in which the above raw material that has been evaporated by making inert gas as carrier gas is conveyed with oxygen gas, on an ion conductive solid-electrolyte substrate, which consists of zirconium oxide containing a stabilizing agent, and a process in which the above raw material is disassembled on the above solid-electrolyte substrate of a predetermined temperature, and the ruthenium oxide electrode, which has the fine structure that consists of particles which have uniform particle diameters, is formed. COPYRIGHT: (C)2004,JPO
    • 要解决的问题:提供一种固体电解质电极的制造方法,其中可以形成具有精细结构的电极,通过该方法可以证明和维持氧化钌的最大程度的最大程度 为了保持高的电导率,高耐腐蚀性和甚至在高工作温度下的高催化活性等物理性能,注意氧化钌作为固体电解质的电极材料。 解决方案:用于固体电解质的电极的制造方法包括使用二草酰甲基钌作为原料并进行该原料的加热蒸发的方法,其中上述原料具有 在由含有稳定剂的氧化锆构成的离子导电性固体电解质基材上形成惰性气体作为载气输送氧气,以及将上述原料分解成上述固体成分的方法, 形成具有预定温度的电解质基底和具有由具有均匀粒径的颗粒构成的精细结构的氧化钌电极。 版权所有(C)2004,JPO
    • 5. 发明授权
    • Particle-dispersed complex and solid electrolytic sensor using it
    • 使用粒子分散的复合和固体电解传感器
    • US08043491B2
    • 2011-10-25
    • US10590079
    • 2004-09-16
    • Takashi GotoTeiichi KimuraHajime SuzukiKeiichiro Jinushi
    • Takashi GotoTeiichi KimuraHajime SuzukiKeiichiro Jinushi
    • G01N27/407
    • H01M4/90G01N27/308G01N27/4075
    • A particle-dispersed complex which can serve as a very active electrochemical catalyst used as the sensor electrode of a solid electrolyte sensor such as an oxygen sensor and an exhaust gas sensor that are sensitive even at low temperature, or as the electrode or the like of an electrochemical device or the like such as an electrolysis or a battery or the like by dispersing without aggregating ruthenium system fine particles having a very small particle size into a carbon matrix phase to keep ruthenium system fine particles in a high catalyst active state. The particle-dispersed complex is characterized by comprising fine particles that have a particles size of 5-100 nm, contain ruthenium element as a constituent element, and are dispersed in a matrix mainly containing carbon, and by having conductivity.
    • 可用作非常活跃的电化学催化剂的颗粒分散复合物,其用作即使在低温下也是敏感的固体电解质传感器(例如氧传感器和排气传感器)的传感器电极,或用作电极等 电解或电池等的电化学装置等,通过不将聚集了非常小粒径的钌系微细颗粒分散在碳基体相中,以使钌体系细颗粒保持在高催化剂活性状态。 颗粒分散复合物的特征在于包含粒径为5-100nm的微粒,含有钌元素作为构成元素,分散在主要含有碳的基质中并具有导电性。
    • 7. 发明授权
    • Sputtering apparatus
    • 溅射装置
    • US06217714B1
    • 2001-04-17
    • US08672660
    • 1996-06-28
    • Munekazu NishiharaTeiichi KimuraIsamu Aokura
    • Munekazu NishiharaTeiichi KimuraIsamu Aokura
    • C23C1434
    • C23C14/352H01J37/3408
    • In a sputtering apparatus, in a vacuum chamber having a gas supply and a gas discharge functions, a substrate is set to a supporting part therefor and a target is disposed at an electrode connected with a power source within a plane opposite to the substrate, so as to form a film while holding the substrate in a fixed state to the target. The electrode is divided into three or more electrode parts, the target is divided and disposed on the three or more electrode parts within the plane, and a magnet is arranged for each divided target at a position where a line of magnetic force on a surface of the each target is generated by each magnet.
    • 在溅射装置中,在具有气体供给和气体放电功能的真空室中,将基板设定为支撑部,并且在与基板相反的平面内的与电源连接的电极上设置靶,因此 以便在将固定状态的基板保持在目标上的同时形成膜。 电极被分为三个或更多个电极部分,目标被分割并设置在平面内的三个或更多个电极部分上,并且在每个分割的靶上布置磁体, 每个目标由每个磁体产生。
    • 10. 发明授权
    • Method for driving plasma display panel
    • 驱动等离子体显示面板的方法
    • US07633464B2
    • 2009-12-15
    • US10559728
    • 2005-05-24
    • Kunihiro MimaMasanori KimuraTeiichi Kimura
    • Kunihiro MimaMasanori KimuraTeiichi Kimura
    • G09G3/28
    • G09G3/294G09G3/2965G09G2310/066G09G2320/0233
    • Driving a plasma display panel, in which generation of a region having brightness non-uniformity can be reduced over an entire screen without changing the voltage and pulse width of sustain pulses, to enable suppression of an increase in power consumption. This driving of the plasma display panel comprises (i) an initialization period for forming a discharge cell at an intersection where a scan electrode and a sustain electrode meet a data electrode and generating initialization discharge in the cell, (ii) a writing period for generating writing discharge in the discharge cell, and (iii) a sustain period for generating sustain discharge by alternately applying sustain pulses to the scan electrode and sustain electrode of the discharge cell. The rise time of the sustain pulses applied to the scan electrode and sustain electrode during the sustain period is shortened at a frequency of once every several times.
    • 驱动等离子体显示面板,其中在不改变维持脉冲的电压和脉冲宽度的情况下,可以在整个屏幕上减少具有亮度不均匀性的区域的生成,从而能够抑制功耗的增加。 等离子体显示面板的这种驱动包括:(i)用于在扫描电极和维持电极与数据电极相交并在单元中产生初始化放电的交叉处形成放电单元的初始化周期,(ii)用于产生 在放电单元中写入放电,以及(iii)通过对维持放电单元的扫描电极和维持电极交替施加维持脉冲来产生维持放电的维持期间。 在维持期间施加到扫描电极和维持电极的维持脉冲的上升时间以每隔几次的频率缩短。