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    • 1. 发明授权
    • Electrolytic ozone cell anode spring board fixture structure
    • 电解臭氧池阳极弹簧板夹具结构
    • US08308914B2
    • 2012-11-13
    • US12990840
    • 2009-03-06
    • Mingyung Hsu
    • Mingyung Hsu
    • C01B13/10C01B13/11C25B9/02C25B11/02C25B11/03C25B11/04C25B11/16
    • C25B1/13C25B9/02C25B11/00
    • An electrolytic ozone cell anode spring fastening board structure includes a solid polymer electrolyte membrane (1), an anode electrocatalyst layer (2), a diffusion layer (3), frame body and support parts (5). A diffusion layer counterpiece (4) has one side attached to the diffusion layer (3), the other side of the diffusion layer counterpiece (4) equipped with a centered elevated step, which contacts the center of the convex side of a spherical spring board (6). In addition, the solid polymer electrolyte membrane (1), frame body and support parts (5), diffusion layer (3), diffusion layer counterpiece (4) and spring board (6) are held together by mechanical fastening means. It prevents a decrease in ozone generation rate in electrolytic ozone cell that can occur from the metal board deformation and thinning of the anode electrocatalyst layer. This will enable the cell to maintain stable fasten strength and good contact of the metal board and anode catalyst in long term operation, achieving stable electrolytic ozone generation rate and cell performance.
    • 电解臭氧池阳极弹簧紧固板结构包括固体聚合物电解质膜(1),阳极电催化剂层(2),扩散层(3),框架体和支撑件(5)。 扩散层配件(4)的一侧与扩散层(3)相连接,扩散层配件(4)的另一侧装有中心的升高台阶,该中心提升台阶接触球形弹簧板的凸面中心 (6)。 此外,固体高分子电解质膜(1),框体和支撑部(5),扩散层(3),扩散层配件(4)和弹簧板(6)通过机械紧固装置保持在一起。 防止电解臭氧层中的臭氧发生率降低,这可能由于金属板的变形和阳极电极催化剂层的变薄而发生。 这将使电池在长期运行中保持稳定的紧固强度和金属板和阳极催化剂的良好接触,达到稳定的电解臭氧产生速率和电池性能。
    • 9. 发明授权
    • Process for oxidizing vanadium and/or uranium
    • 氧化钒和/或铀的工艺
    • US4222826A
    • 1980-09-16
    • US949885
    • 1978-10-10
    • Olen L. Riggs, Jr.Dennis A. Brunsell
    • Olen L. Riggs, Jr.Dennis A. Brunsell
    • C25B1/00C25B11/16C25C1/22
    • C25B11/16C25B1/00
    • The present invention provides a process for rapidly and efficiently oxidizing either or both vanadium and uranium from the trivalent and guadrivalent oxidation states, respectively, to the pentavelent and hexavalent oxidation states, respectively, through the use of a special electrode. The electrode is produced by anodically treating a substrate material selected from the group of titanium, zirconium, niobium, hafnium and alloys thereof in an aqueous electrolyte. The electrolyte comprises an aqueous solution of manganous ion in a concentration of from about 15 to 50 gm/l and from about 10 to 40 gm/l sulfuric acid. Manganese dioxide is electrodeposited on the substrate to form the electrode. The manganese dioxide coated electrode then is placed in an oxidation cell as an anode wherein it is potentiostaticly controlled to oxidize either or both vanadium and uranium without significant anode deterioration and without oxygen generation at the anode.
    • 本发明提供了通过使用特殊电极,分别将三价和三价氧化态的钒和铀分别快速有效地氧化成五价和六价氧化态的方法。 电极通过在含水电解质中阳极处理选自钛,锆,铌,铪及其合金中的基材而制造。 电解质包含浓度为约15至50gm / l和约10至40gm / l硫酸的二价锰离子水溶液。 将二氧化锰电沉积在基底上以形成电极。 然后将二氧化锰涂覆的电极放置在氧化池中作为阳极,其中其被静电控制以氧化钒和铀中的一种或两种,而不会显着地阳极劣化并且在阳极处没有产生氧。