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    • 2. 发明授权
    • Titanium material for fuel cell separator having low contact resistance
    • 用于燃料电池隔板的钛材料具有低接触电阻
    • US08137866B2
    • 2012-03-20
    • US11995937
    • 2006-07-26
    • Jun SuzukiToshiki SatoKasumi YanagisawaTakashi YashikiMasahito Fukuda
    • Jun SuzukiToshiki SatoKasumi YanagisawaTakashi YashikiMasahito Fukuda
    • H01M4/66H01M4/64
    • H01M8/0208C22C14/00C22C21/06C22C29/12C22C32/0021H01M8/0228
    • A separator for a fuel cell comprising a titanium alloy substrate containing at least one noble metal element selected from platinum group elements, Au and Ag; and a layer of a mixture formed on the titanium alloy substrate, said mixture comprising the noble metal element precipitated from the titanium alloy substrate and titanium oxide, and said layer having an average thickness of up to 200 nm; wherein the mixture layer on the surface and the titanium alloy substrate have a conductivity in terms of contact resistance as determined by the following method of up to 12 mΩ·cm2. The contact resistance is determined by placing a carbon cloth having an average thickness of 0.3 mm on opposite surfaces of the titanium alloy substrate having the mixture layer formed thereon; sandwiching the titanium alloy material with a pair of copper electrodes via the carbon cloth, the copper electrodes each having a contact area with the titanium alloy material of 1 cm2; measuring voltage drop between the carbon cloths by using a four terminal ohmmeter while pressing the copper electrodes against the titanium alloy material at a surface pressure of 5 kg/cm2 by using a hydraulic press and applying an electric current of 7.4 mA between the copper electrodes; and calculating the contact resistance from the measured value.
    • 一种用于燃料电池的隔板,包括含有至少一种选自铂族元素Au和Ag的贵金属元素的钛合金基底; 以及形成在钛合金基板上的混合物层,所述混合物包含从钛合金基板沉淀的贵金属元素和氧化钛,所述层的平均厚度高达200nm; 其中表面上的混合物层和钛合金基底具有通过以下方法测定的接触电阻方面的导电率,其高达12mΩ·cm 2·cm 2。 通过将平均厚度为0.3mm的碳布放置在其上形成有混合层的钛合金基板的相对表面上来确定接触电阻; 通过碳布将钛合金材料与一对铜电极夹住,每个与钛合金材料的接触面积为1cm 2的铜电极; 使用四端欧姆计测量碳布之间的电压降,同时使用液压机在铜电极之间施加7.4mA的电流,将铜电极以5kg / cm2的表面压力压在钛合金材料上; 并根据测量值计算接触电阻。
    • 3. 发明申请
    • TITANIUM ELECTRODE MATERIAL
    • 钛电极材料
    • US20100119882A1
    • 2010-05-13
    • US11995937
    • 2006-07-26
    • Jun SuzukiToshiki SatoKasumi YanagisawaTakashi YashikiMasahito Fukuda
    • Jun SuzukiToshiki SatoKasumi YanagisawaTakashi YashikiMasahito Fukuda
    • H01M2/16
    • H01M8/0208C22C14/00C22C21/06C22C29/12C22C32/0021H01M8/0228
    • A titanium material for an electrode comprising a titanium alloy substrate containing at least one noble metal element selected from platinum group elements, Au and Ag; and a layer of a mixture formed on the titanium alloy substrate, said mixture comprising the noble metal element precipitated from the titanium alloy substrate and titanium oxide, and said layer having an average thickness of up to 200 nm; wherein the mixture layer on the surface and the titanium alloy substrate have a conductivity in terms of contact resistance as determined by the following method of up to 12 mΩ·cm2. The contact resistance is determined by placing a carbon cloth having an average thickness of 0.3 mm on opposite surfaces of the titanium alloy substrate having the mixture layer formed thereon; sandwiching the titanium alloy material with a pair of copper electrodes via the carbon cloth, the copper electrodes each having a contact area with the titanium alloy material of 1 cm2; measuring voltage drop between the carbon cloths by using a four terminal ohmmeter while pressing the copper electrodes against the titanium alloy material at a surface pressure of 5 kg/cm2 by using a hydraulic press and applying an electric current of 7.4 mA between the copper electrodes; and calculating the contact resistance from the measured value.
    • 一种用于电极的钛材料,包括含有至少一种选自铂族元素Au和Ag的贵金属元素的钛合金基底; 以及形成在钛合金基板上的混合物层,所述混合物包含从钛合金基板沉淀的贵金属元素和氧化钛,所述层的平均厚度高达200nm; 其中表面上的混合物层和钛合金基底具有通过以下方法测定的接触电阻方面的导电率,其高达12mΩ·cm 2·cm 2。 通过将平均厚度为0.3mm的碳布放置在其上形成有混合层的钛合金基板的相对表面上来确定接触电阻; 通过碳布将钛合金材料与一对铜电极夹住,每个与钛合金材料的接触面积为1cm 2的铜电极; 使用四端欧姆计测量碳布之间的电压降,同时使用液压机在铜电极之间施加7.4mA的电流,将铜电极以5kg / cm2的表面压力压在钛合金材料上; 并根据测量值计算接触电阻。
    • 7. 发明授权
    • Reflective film laminate
    • 反光膜层压板
    • US08603648B2
    • 2013-12-10
    • US12984056
    • 2011-01-04
    • Sho KatsuraNobuhiro KobayashiJun SuzukiToshiki Sato
    • Sho KatsuraNobuhiro KobayashiJun SuzukiToshiki Sato
    • B32B17/06B32B15/04C23C14/00
    • C23C14/5853C22C21/00C23C14/205G02B5/0858Y10T428/265
    • A reflective film laminate is provided with high productivity and at low cost in which a protective film with minimized pinholes is provided to improve the alkali resistance and warm water resistance of the reflective film laminate including a pure Al film or an Al-based alloy film so that a reflectivity reduction resulting from the elution or oxidization of the Al film in an alkaline or warm water environment is less likely to occur. The reflective film laminate of the present invention includes, over a substrate, a pure Al film or an Al-based alloy film as a first layer, and an oxide film of a metal containing one or more elements selected from the group consisting of Zr, Cr, Y, Nb, Hf, Ta, W, Ti, Si, and Mo as a second layer over the first layer. The thickness of the second layer is 0.1 to 10 nm.
    • 以低成本提供反射膜层叠体,其中提供具有最小化的针孔的保护膜以提高包括纯Al膜或Al基合金膜的反射膜层压体的耐碱性和耐温水性, 在碱性或温水环境中由于Al膜的洗脱或氧化引起的反射率降低不太可能发生。 本发明的反射膜层叠体在基板上包括作为第一层的纯Al膜或Al基合金膜,以及含有选自Zr, Cr,Y,Nb,Hf,Ta,W,Ti,Si和Mo作为第一层上的第二层。 第二层的厚度为0.1〜10nm。
    • 8. 发明申请
    • FUEL CELL SEPARATOR
    • 燃油电池分离器
    • US20130302719A1
    • 2013-11-14
    • US13982411
    • 2012-02-14
    • Satoru TakadaJun SuzukiToshiki Sato
    • Satoru TakadaJun SuzukiToshiki Sato
    • H01M8/02
    • H01M8/0206H01M8/0213H01M8/0228H01M2008/1095
    • Provided is a fuel cell separator that can maintain a low contact resistance for a long period of time while being used for a fuel cell, by using a carbon film that can be formed with high productivity. The fuel cell separator 10 is provided with: a substrate 1 comprising titanium or titanium alloy; and a conductive carbon layer 2 that is formed by compression bonding carbon powder onto the substrate 1, and covers the surface thereof. Between the substrate 1 and the carbon layer 2, particle-like titanium carbide 31 and carbon dissolved titanium 32 generated by reacting the titanium of the substrate 1 and carbon of the carbon layer 2 with each other through heat treatment are connected, forming an intermediate layer 3.
    • 提供一种燃料电池隔板,其可以通过使用能够以高生产率形成的碳膜,能够在用于燃料电池的同时保持长时间的低接触电阻。 燃料电池隔板10设置有:包含钛或钛合金的基板1; 以及通过将碳粉压接在基板1上并覆盖其表面而形成的导电性碳层2。 在基板1和碳层2之间连接通过热处理使基板1的钛与碳层2的碳反应而产生的颗粒状的碳化钛31和碳溶解的钛32,形成中间层 3。
    • 9. 发明授权
    • Reflection film, reflection film laminate, LED, organic EL display, and organic EL illuminating instrument
    • 反射膜,反射膜层压板,LED,有机EL显示器和有机EL照明仪器
    • US08399100B2
    • 2013-03-19
    • US12679633
    • 2008-09-25
    • Jun SuzukiToshiki SatoTakayuki TsubotaShinichi Tanifuji
    • Jun SuzukiToshiki SatoTakayuki TsubotaShinichi Tanifuji
    • B32B17/06B32B27/36B32B15/04
    • G02B5/0858C23C14/14C23C14/165F21S41/37F21V7/22G02B5/0808G02B5/085H01L51/5203H01L51/5271H05B33/26Y10T428/12896Y10T428/265Y10T428/31507Y10T428/31678
    • The present invention provides a reflection film, a reflection film laminate which are less likely to undergo agglomeration or sulfidation of an Ag thin film due to heat, and a LED, an organic EL display, and an organic EL illuminating instrument, each including any of these. The reflection film in accordance with the present invention is a reflection film formed on a substrate, characterized by being an Ag alloy film including Ag as a main component, and Bi in an amount of 0.02 atomic percent or more, and further including one or more of V, Ge, and Zn in a total content of 0.02 atomic percent or more, and satisfying the following expression (1): 7×[A]+13×[Bi]≦8  (1) where [A] (atomic percent) denotes the content of one or more of the V, Ge, and Zn, and [Bi] (atomic percent) denotes the content of Bi. Whereas, a reflection film laminate in accordance with the present invention is a reflection film laminate formed on a substrate, characterized by including: a first film comprising an Ag alloy film including Ag as a main component, and Bi in an amount of 0.02 atomic percent or more, and further including one or more of V, Ge, and Zn in a total content of 0.02 atomic percent or more, and satisfying the expression (1); and a second film including a Si oxide formed on the first film.
    • 本发明提供一种反射膜,由于热而不易发生Ag薄膜的聚集或硫化的反射膜层叠体,以及LED,有机EL显示器和有机EL照明器具,其分别包括 这些。 根据本发明的反射膜是形成在基板上的反射膜,其特征在于包括Ag作为主要成分的Ag合金膜,以及0.02原子%以上的Bi,并且还包括一个或多个 (A)+ 13×[Bi]≦̸ 8(1)其中[A](原子数)为10原子%以上,满足下式(1):V,Ge, 百分比)表示V,Ge和Zn中的一种或多种的含量,[Bi](原子百分比)表示Bi的含量。 而根据本发明的反射膜层叠体是在基板上形成的反射膜层压体,其特征在于,包括:第一膜,包括以Ag为主要成分的Ag合金膜,以及0.02原子%的Bi 以上,进一步包含总量为0.02原子%以上的V,Ge,Zn中的一种以上,满足式(1)。 以及形成在第一膜上的包含Si氧化物的第二膜。
    • 10. 发明申请
    • TITANIUM ELECTRODE MATERIAL AND SURFACE TREATMENT METHOD OF TITANIUM ELECTRODE MATERIAL
    • 钛电极材料的钛电极材料与表面处理方法
    • US20100233587A1
    • 2010-09-16
    • US12709935
    • 2010-02-22
    • Toshiki SATOJun SuzukiYoshinori ItoJun Hisamoto
    • Toshiki SATOJun SuzukiYoshinori ItoJun Hisamoto
    • H01M8/00
    • H01M4/8657H01M4/8803H01M4/8817H01M4/8867H01M4/92H01M4/921H01M8/0206H01M2008/1095
    • It is an object of the present invention to provide a titanium electrode material which is low in cost and is excellent in electric conductivity, corrosion resistance and hydrogen absorption resistance, and a surface treatment method of a titanium electrode material. A titanium electrode material includes: on the surface of a titanium material including pure titanium or a titanium alloy, a titanium oxide layer having a thickness of 3 nm or more and 75 nm or less, and having an atomic concentration ratio of oxygen and titanium (O/Ti) at a site having the maximum oxygen concentration in the layer of 0.3 or more and 1.7 or less; and an alloy layer including at least one noble metal selected from Au, Pt, and Pd, and at least one non-noble metal selected from Zr, Nb, Ta, and Hf, having a content ratio of the noble metal and the non-noble metal of 35:65 to 95:5 by atomic ratio, and having a thickness of 2 nm or more, on the titanium oxide layer. The surface treatment method of a titanium electrode material includes a titanium oxide layer formation step, an alloy layer formation step, and a heat treatment step.
    • 本发明的目的是提供一种成本低且导电性,耐腐蚀性和耐氢吸收性优异的钛电极材料以及钛电极材料的表面处理方法。 钛电极材料包括:在包括纯钛或钛合金的钛材料的表面上,具有3nm以上且75nm以下的氧化钛层,并且具有氧和钛的原子浓度比( O / Ti)在层中的最大氧浓度为0.3以上且1.7以下的部位; 以及包含选自Au,Pt和Pd中的至少一种贵金属和选自Zr,Nb,Ta和Hf中的至少一种非贵金属的合金层,其具有贵金属和非金属的含量比, 在氧化钛层上的原子比为35:65〜95:5的贵金属,厚度为2nm以上。 钛电极材料的表面处理方法包括氧化钛层形成步骤,合金层形成步骤和热处理步骤。