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    • 2. 发明申请
    • Method of Purifying Metal
    • 净化金属的方法
    • US20080289150A1
    • 2008-11-27
    • US11631287
    • 2005-07-04
    • Kenji WadaToshiaki FukuyamaRyotatsu Otsuka
    • Kenji WadaToshiaki FukuyamaRyotatsu Otsuka
    • B01D9/00
    • C22B9/02C01B33/037C22B61/00Y02P10/234
    • A method for purifying a metal, which includes: a first step of holding a first molten metal containing impurities in a first crucible; a second step of immersing a first cooling body in the first molten metal held in the first crucible while letting a cooling fluid flow in the interior of the cooling body to crystallize a first purified metal on a surface of the cooling body; a third step of taking out the first cooling body with the first purified metal crystallized thereon from the first molten metal; a fourth step of holding in a crucible a second molten metal having an impurity concentration less than that of the first molten metal of the first step; a fifth step of melting the first purified metal crystallized in the second step and holding the molten metal in a second crucible together with the second molten metal held in the fourth step; a sixth step of immersing a second cooling body in the second molten metal held in the fifth step while letting a cooling fluid flow in the interior of the cooling body to crystallize a second purified metal on a surface of the cooling body; and a seventh step of taking out the second cooling body with the second purified metal crystallized thereon in the sixth step from the second molten metal.
    • 一种净化金属的方法,其特征在于包括:将含有杂质的第一熔融金属保持在第一坩埚中的第一步骤; 将第一冷却体浸入保持在第一坩埚中的第一熔融金属中,同时使冷却流体在冷却体的内部流动使第一纯化金属在冷却体的表面上结晶的第二步骤; 第三步骤,从第一熔融金属取出第一冷却体,其中结晶有第一纯化金属; 在坩埚中保持杂质浓度小于第一步骤的第一熔融金属的第二熔融金属的第四步骤; 熔化在第二步骤中结晶的第一纯化金属并将熔融金属与保持在第四步骤中的第二熔融金属一起保持在第二坩埚中的第五步骤; 将第二冷却体浸渍在第五工序中保持的第二熔融金属中,同时使冷却液在冷却体内流动,使第二纯化金属在冷却体的表面上结晶的第六工序; 以及第七步骤,从第二熔融金属在第六步骤中从第二冷却体中取出第二纯化金属在其上结晶化。
    • 4. 发明申请
    • Method For Refining Silicon And Silicon Refined Thereby
    • 由此精制硅和硅的方法
    • US20080031799A1
    • 2008-02-07
    • US11631312
    • 2005-07-07
    • Toshiaki FukuyamaKenji Wada
    • Toshiaki FukuyamaKenji Wada
    • C01B33/037
    • C01B33/037
    • In order to provide silicon for solar batteries inexpensively by efficient refining and without lowering the refining rate, the present invention is directed to a method for refining molten silicon containing an impurity element. According to one aspect, the method includes the steps of: bringing a refine gas containing a component that reacts with the impurity element into contact with the molten silicone, thereby removing a product containing the impurity element from the molten silicon; and bringing a process gas, having small reactivity with the molten silicon, with the molten silicon, thereby removing a product generated by reaction of the molten silicon and the refine gas.
    • 为了通过有效的精炼提供廉价的太阳能电池的硅并且不降低精炼速度,本发明涉及一种用于精炼含有杂质元素的熔融硅的方法。 根据一个方面,所述方法包括以下步骤:使含有与所述杂质元素反应的成分的精炼气体与所述熔融硅酮接触,从而从所述熔融硅除去含有所述杂质元素的物质; 并且将与熔融硅反应性小的工艺气体与熔融硅反应,从而除去由熔融硅与精炼气体反应产生的产物。
    • 9. 发明申请
    • COMPOSITION FOR OPTICAL MATERIALS
    • 光学材料组成
    • US20110089385A1
    • 2011-04-21
    • US12904252
    • 2010-10-14
    • Kenji WadaKyohei ArayamaAkiyoshi Goto
    • Kenji WadaKyohei ArayamaAkiyoshi Goto
    • G02B5/22C07F7/18C07F7/10
    • C07F7/21C08G77/045C08L83/04G02B1/111
    • The composition for optical materials includes a polymer obtained from silsesquioxanes which are represented by average composition formula (1): (R1SiO1.5)x(R2SiO1.5)y (wherein R1 is a polymerizable group, R2 is a non-polymerizable group, x is a number of 2.0 to 14.0, y is a number of 2.0 to 14.0, provided that x+y=8.0 to 16.0, and R1 groups and R2 groups may be the same or different) and include at least one cage silsesquioxane compound. This composition is suitable for use as the antireflective film in optical devices, has less film shrinkage in the curing step, has good coated surface state and excellent moisture resistance and adhesion, has small changes in the refractive index under high temperature conditions, and is capable of forming a low-refractive-index film.
    • 用于光学材料的组合物包括由平均组成式(1)表示的倍半硅氧烷获得的聚合物:(R1SiO1.5)x(R2SiO1.5)y(其中R1是可聚合基团,R2是不可聚合基团, x为2.0〜14.0的数,y为2.0〜14.0的数,条件是x + y = 8.0〜16.0,R 1基和R 2基可以相同或不同),并且包括至少一种笼型倍半硅氧烷化合物。 该组合物适合用作光学元件中的抗反射膜,在固化步骤中具有较小的膜收缩率,具有良好的涂覆表面状态和优异的耐湿性和粘附性,在高温条件下的折射率变化小,并且能够 形成低折射率膜。