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    • 1. 发明专利
    • Ignition plug for reformer
    • 点燃喷枪改装
    • JP2013127846A
    • 2013-06-27
    • JP2011276098
    • 2011-12-16
    • Futaba Industrial Co Ltdフタバ産業株式会社Toshiba Fuel Cell Power Systems Corp東芝燃料電池システム株式会社Tokyo Yogyo Co Ltd東京窯業株式会社
    • KATO TETSUOSUZUKI TOMOYUKIOGAWA SHIGERUOSAKI HIROSHITANAKA MASATOSHIHAYAMA KIYOHISAOSHIMA TOMOKO
    • H01T13/36F23Q3/00H01T13/20
    • PROBLEM TO BE SOLVED: To obtain an ignition plug for reformer that is easy to manufacture.SOLUTION: A discharge rod 58 is inserted through an insertion hole 52 formed through an insulator 51. A taper hole 54 linked to the insertion hole 52 while expanding outward in diameter is formed in the insulator 51, and a sealing member 60 is disposed between the periphery of the discharge rod 58 and the inner periphery of the insertion hole 52 in the insulator 51. An injection hole 56 linked to the taper hole 54 and opened outward is formed in the insulator 51, and sealing glass 74 injected from the taper hole 54 side through the injection hole 56 is fused and solidified. Furthermore, the insulator 51 is inserted through an insertion hole 66 formed through a fastening member 64, a taper hole 68 linked to the insertion hole 66 while expanding outward in diameter is formed in the fastening member 64, and an injection hole 70 linked to the taper hole 68 and opened outward is formed. A sealing member 72 is disposed between the periphery of the insulator 51 and the inner periphery of the insertion hole 66 in the fastening member 64, and sealing glass 76 is fused and solidified.
    • 要解决的问题:获得易于制造的重整器用火花塞。 解决方案:放电杆58插入通过绝缘体51形成的插入孔52.在绝缘体51中形成有与插入孔52连接而同时向外扩展的锥形孔54,密封构件60 布置在排出杆58的周边和绝缘体51的插入孔52的内周之间。在绝缘体51中形成有与锥形孔54连接并向外开口的注入孔56, 通过注入孔56的锥孔54侧被熔融固化。 此外,绝缘体51插入通过紧固构件64形成的插入孔66,在紧固构件64上形成有与插入孔66连接的锥形孔68,同时在紧固构件64中形成直径扩大的注入孔70, 形成向外侧开口的锥形孔68。 密封构件72设置在绝缘体51的周边和紧固构件64中的插入孔66的内周之间,密封玻璃76熔融固化。 版权所有(C)2013,JPO&INPIT
    • 2. 发明专利
    • Sensor probe
    • 传感器探头
    • JP2014160006A
    • 2014-09-04
    • JP2013030332
    • 2013-02-19
    • Tokyo Yogyo Co Ltd東京窯業株式会社Nagoya Institute Of Technology国立大学法人 名古屋工業大学
    • OSHIMA TOMOKOTAKETSU NORIHIKOKURITA NORIAKIOKUYAMA YUJIKIMATA KOJI
    • G01N27/406G01N27/416
    • PROBLEM TO BE SOLVED: To provide a sensor probe capable of minimizing influence of reference gas or the like on a measuring target.SOLUTION: In a sensor probe 1 including a cylindrical sleeve 4 having an aperture 4a on a tip part, a rod-like sensor (solid electrolyte 2) located in the sleeve 4 and an interposed material 5 elastically interposed between an outer peripheral surface of the sensor and an inner peripheral surface of the sleeve 4 to hold the sensor in the sleeve 4, the interposed material includes a melting material allowed to be melted in a use environment to airtightly block an inner space of the sleeve in an axial direction. In the configuration, since the inner space of the sleeve is airtightly blocked in the axial direction in the use environment, reference gas or the like is prevented from arriving at a measuring target through the sleeve and accurate measurement can be achieved.
    • 要解决的问题:提供能够使参考气体等对测量对象的影响最小化的传感器探针。解决方案:在包括在尖端部分上具有孔4a的圆柱形套筒4的传感器探针1中,棒状 传感器(固体电解质2)和弹性插入在传感器的外周面和套筒4的内周面之间的夹持材料5,以将传感器保持在套筒4中,夹持材料包括熔融 允许在使用环境中熔化的材料以沿轴向气密地阻塞套筒的内部空间。 在该结构中,由于在使用环境中套筒的内部空间在轴向气密地阻塞,因此可以防止参考气体等通过套筒到达测量对象物,并且可以实现精确的测量。
    • 3. 发明专利
    • Hydrogen separation method in gaseous phase and hydrogen separation apparatus in gaseous phase
    • 气相中氢分离方法和氢气分离装置
    • JP2009263708A
    • 2009-11-12
    • JP2008113197
    • 2008-04-23
    • National Institutes Of Natural SciencesTokyo Yogyo Co Ltd大学共同利用機関法人自然科学研究機構東京窯業株式会社
    • KATAHIRA KOJIOSHIMA TOMOKOASAKURA YAMATOTANAKA MASAHIROKONO TAKAO
    • C25B1/04B01D53/22B01D71/02
    • Y02E60/366
    • PROBLEM TO BE SOLVED: To provide a hydrogen separation method in gaseous phase by which the performance of a hydrogen pump is improved and a hydrogen separating apparatus in gaseous phase.
      SOLUTION: The hydrogen separation method carried out by operating a process of preparing a hydrogen pump 1 apparatus provided with an electrolyte substrate 10 using a proton conductive ceramic as a base material, an anode chamber 13 provided in the anodic electrode 11 side of the electrolyte substrate 10 and a cathode chamber 14 provided in the cathodic electrode 12 side of the electrolyte substrate 10. An objective gas containing hydrogen is introduced into the anode chamber 13 of the hydrogen pump 1. The gas containing hydrogen in the objective gas is decomposed in the anodic electrode 11 of the electrolyte substrate 10. Hydrogen ion is permeated into the inside of the electrolyte substrate 10. The operation of discharging hydrogen gas (including hydrogen isotope) produced on the cathodic electrode 12 is carried out. In the execution of the discharge operation, a suction operation accelerating the separating of hydrogen gas produced on the cathodic electrode 12 from the cathodic electrode 12 by a suction means 7 is carried out.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供氢气分离装置在气相中提供氢气分离方法,氢气分离装置在气相中。 解决方案:通过操作制备具有使用质子传导性陶瓷作为基材的电解质基板10的氢泵1装置的工序来进行的氢分离方法,设置在阳极室13的阳极电极11侧 电解质基板10和设置在电解质基板10的阴极电极12侧的阴极室14.将含有氢的目标气体引入氢泵1的阳极室13.在目标气体中含有氢的气体被分解 在电解质基板10的阳极电极11中。氢离子渗透到电解质基板10的内部。执行在阴极电极12上产生的氢气(包括氢同位素)的排出操作。 在执行放电操作时,执行通过抽吸装置7将阴极电极12上产生的氢气与阴极电极12的分离加速的抽吸操作。 版权所有(C)2010,JPO&INPIT
    • 5. 发明专利
    • Oxygen sensor for oxygen-free copper and method for selecting oxygen sensor for copper
    • 用于无氧铜的氧气传感器和选择氧化铜传感器的方法
    • JP2007024732A
    • 2007-02-01
    • JP2005209131
    • 2005-07-19
    • Tokyo Yogyo Co Ltd東京窯業株式会社
    • KATAHIRA KOJIOSHIMA TOMOKO
    • G01N27/411
    • PROBLEM TO BE SOLVED: To provide an oxygen sensor for oxygen-free copper capable of accurately measuring the partial pressure of oxygen and the concentration of oxygen in a fused oxygen-free copper and a liquid of a fused copper alloy of an oxygen concentration of ≤10 ppm. SOLUTION: The oxygen sensor for oxygen-free copper includes a reference substance 28 made of any system of a Cr/Cr 2 O 3 system, an Fe/FeO system, and an Mo/MoO 2 system; a solid electrolyte tube 27 to be in contact with the reference substance 28 and oxygen-free copper or a copper alloy; and a connecting electrode to be electrically connected to the reference substance 28 and oxygen-free copper or a copper alloy. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供一种无氧铜的氧传感器,其能够精确地测量熔融无氧铜和氧气的熔融铜合金的液体中的氧分压和氧浓度 浓度≤10ppm。 解决方案:用于无氧铜的氧传感器包括由Cr / Cr 2 SB 3 O 3 / SB 3系统的任何系统制成的参考物质28,Fe / FeO 系统和Mo / MoO 2 系统; 与参考物质28和无氧铜或铜合金接触的固体电解质管27; 以及与参考物质28电连接的连接电极和无氧铜或铜合金。 版权所有(C)2007,JPO&INPIT
    • 6. 发明专利
    • Method for selecting oxygen sensor for oxygen copper
    • 氧选择氧传感器的方法
    • JP2011075582A
    • 2011-04-14
    • JP2011008597
    • 2011-01-19
    • Tokyo Yogyo Co Ltd東京窯業株式会社
    • KATAHIRA KOJIOSHIMA TOMOKO
    • G01N27/409
    • PROBLEM TO BE SOLVED: To provide a method for selecting an oxygen sensor for copper having a high measurement accuracy to measure an oxygen partial pressure and an oxygen concentration of a fused oxygen copper and a copper alloy. SOLUTION: When the predicted oxygen concentration of an oxygen-free copper or a copper alloy is about 0.5 ppm, that is, the level of an oxygen partial pressure is at a level of 10 -13 , either of Fe/FeO and Mo/MoO 2 is selected as a reference electrode. When the predicted oxygen concentration of an oxygen-free copper or a copper alloy is about 0.005 ppm, that is, the level of oxygen partial pressure is at a level of 10 -17 , Cr/Cr 2 O 3 is selected as a reference electrode. When the predicted oxygen concentration of copper is about 150 ppm, that is, the level of oxygen partial pressure is presumably at a level of 10 -8 , Ni/NiO is selected as a reference electrode. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:提供一种用于选择具有高测量精度的用于铜的氧传感器以测量熔融氧铜和铜合金的氧分压和氧浓度的方法。 解决方案:当无氧铜或铜合金的预测氧浓度为约0.5ppm时,即氧分压的水平为10 -13 选择Fe / FeO和Mo / MoO 2 作为参比电极。 当无氧铜或铜合金的预测氧浓度为约0.005ppm时,即氧分压水平为10 -17 的水平时,Cr / Cr 2 O 3 作为参考电极。 当铜的预测氧浓度为约150ppm时,即氧气分压的水平推定为10 -8 的水平时,选择Ni / NiO作为参比电极。 版权所有(C)2011,JPO&INPIT
    • 7. 发明专利
    • Sensor probe using solid electrolyte
    • 传感器探头使用固体电解质
    • JP2006053112A
    • 2006-02-23
    • JP2004236659
    • 2004-08-16
    • Nissabu:KkTokyo Yogyo Co Ltd東京窯業株式会社株式会社ニッサブ
    • KATAHIRA KOJIOSHIMA TOMOKOTANAKA EIICHIKUROISHI NAOTAKA
    • G01N27/411G01N27/406
    • PROBLEM TO BE SOLVED: To provide a sensor probe using a solid electrolyte good in user's convenience and easy to produce. SOLUTION: A hydrogen/oxygen sensor probe 11 is constituted by incorporating two sensor probes same or different in kind among a hydrogen sensor probe 26 and an oxygen sensor probe 29 as unit sensor probes. Concretely, the hydrogen/oxygen sensor probe 11 is constituted by incorporating two sensor probes, that is, the hydrogen sensor probe 26 and the oxygen sensor probe 29 or by incorporating two same sensor probes. This sensor probe 11 is placed in a medium to be measured to measure the concentration of hydrogen or oxygen or the partial pressure of hydrogen or oxygen. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供使用固体电解质的传感器探头,用户使用方便,便于生产。 解决方案:氢/氧传感器探头11通过在氢传感器探针26和氧传感器探针29之间并入两个相同或不同的传感器探针作为单位传感器探针而构成。 具体地说,氢/氧传感器探针11由两个传感器探针,即氢传感器探针26和氧传感器探头29组合,或者通过结合两个相同的传感器探针构成。 将该传感器探针11置于要测量的介质中以测量氢或氧的浓度或氢或氧的分压。 版权所有(C)2006,JPO&NCIPI
    • 8. 发明专利
    • Hydrogen/oxygen sensor
    • 氢/氧传感器
    • JP2006038633A
    • 2006-02-09
    • JP2004218988
    • 2004-07-27
    • Tokyo Yogyo Co Ltd東京窯業株式会社
    • KATAHIRA KOJIOSHIMA TOMOKO
    • G01N27/411G01N27/406G01N27/416
    • PROBLEM TO BE SOLVED: To provide a user-friendly hydrogen/oxygen sensor that can be manufactured easily. SOLUTION: The hydrogen/oxygen sensor 10 comprises a cylindrical sensor probe 11, a cylindrical closed-end holder 12 for retaining the sensor probe 11, a connection cable 13 which keeps one end connected to the sensor probe 11, and a computing unit 15 connected to the other end of the connection cable 13. Either the oxygen sensor probe or the oxygen sensor probe can be changed to the holder 12. When the sensor probe 11 is dipped into melted copper as a medium to be measured, hydrogen concentration or oxygen concentration, or hydrogen partial pressure or oxygen partial pressure is measured. The computing unit 15 computes and displays the hydrogen concentration or oxygen concentration, or hydrogen partial pressure or oxygen partial pressure from a signal from the sensor probe 11. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供易于制造的用户友好的氢/氧传感器。 解决方案:氢/氧传感器10包括圆柱形传感器探头11,用于保持传感器探针11的圆柱形闭合端保持器12,将一端连接到传感器探头11的连接电缆13和计算 单元15连接到连接电缆13的另一端。氧传感器探针或氧传感器探头可以改变为保持器12.当传感器探头11浸入作为待测介质的熔融铜中时,氢浓度 或氧浓度,或氢分压或氧分压。 计算单元15计算并显示来自传感器探针11的信号的氢浓度或氧浓度或氢分压或氧分压。(C)2006,JPO和NCIPI
    • 9. 发明专利
    • Magnesium sensor probe
    • MAGNESIUM传感器探头
    • JP2006132959A
    • 2006-05-25
    • JP2004319058
    • 2004-11-02
    • Tokyo Yogyo Co Ltd東京窯業株式会社
    • KATAHIRA KOJIOSHIMA TOMOKO
    • G01N27/411
    • PROBLEM TO BE SOLVED: To provide a magnesium sensor probe capable of measuring the concentration of magnesium included in a measuring object such as molten metal. SOLUTION: This magnesium sensor probe 1 has a solid electrolyte layer 2 using zirconia as a base material, a reference material holding part 3 arranged on one surface side of the solid electrolyte layer 2, and an electrode part 4 arranged on the one surface side of the solid electrolyte layer 2 and contacting with the measuring object. The electrode part 4 uses oxide including the magnesium as a base material. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供能够测量诸如熔融金属的测量对象中包含的镁的浓度的镁传感器探针。 解决方案:该镁传感器探针1具有使用氧化锆作为基材的固体电解质层2,配置在固体电解质层2的一个表面侧的参考材料保持部3和布置在该固体电解质层2上的电极部4 固体电解质层2的表面侧并与测量对象接触。 电极部4使用包含镁作为基材的氧化物。 版权所有(C)2006,JPO&NCIPI
    • 10. 发明专利
    • Sensor probe
    • 传感器探头
    • JP2014160005A
    • 2014-09-04
    • JP2013030330
    • 2013-02-19
    • Tokyo Yogyo Co Ltd東京窯業株式会社Nagoya Institute Of Technology国立大学法人 名古屋工業大学
    • OSHIMA TOMOKOTAKETSU NORIHIKOKURITA NORIAKIOKUYAMA YUJIKIMATA KOJI
    • G01N27/406G01N27/416
    • PROBLEM TO BE SOLVED: To provide a sensor probe which is for a sensor for making measurements in molten metal and is capable of protecting the sensor from being damaged by thermal shock without requiring preheating that takes a long time.SOLUTION: A sensor probe 1 comprises a rod-like sensor 2 whose tip portion is immersed in molten metal, and a thermal shock moderator 4 which is attached to the tip portion of the sensor 2, is made of a same metal as the molten metal, and is designed to melt in the molten metal and disappear. Because the thermal shock moderator 4 melts and disappears in the molten metal when the tip of the sensor probe 1 in this configuration is immersed in the molten metal, the heat capacity reduces the rate of temperature rise of the sensor, which prevents the sensor 2 from being damaged by thermal shock. Also, since the thermal shock moderator 4 is gone after measurement is completed, the sensor 2 is not subjected to an unnecessary load when being cooled down to room temperature, which prevents damage while being cooled down.
    • 要解决的问题:提供一种用于传感器的传感器探头,用于在熔融金属中进行测量,并且能够保护传感器免受热冲击的损害,而不需要长时间的预热。解决方案:传感器探头1包括 将其前端部分浸入熔融金属中的杆状传感器2和安装在传感器2的顶端部分上的热冲击减速器4由与熔融金属相同的金属制成,并被设计成熔化 熔融金属消失。 因为当这种结构中的传感器探针1的尖端浸入熔融金属中时,热冲击调节剂4在熔融金属中熔化并消失,所以热容量降低了传感器的温度上升率,从而防止传感器2 被热冲击损坏。 此外,由于在测量完成之后热冲击调节器4不见了,当被冷却到室温时,传感器2不会受到不必要的负载,这防止在被冷却时的损坏。