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    • 6. 发明授权
    • Method for making composite material using oxygen
    • 使用氧气制备复合材料的方法
    • US4802524A
    • 1989-02-07
    • US581226
    • 1984-02-23
    • Tadashi Donomoto
    • Tadashi Donomoto
    • B22D19/02B22D19/14B22F3/26B32B15/14C22C1/10C22C47/00C22C47/02C22C47/08C22C47/10C22C47/12
    • C22C47/025B22D19/14B22F3/26C22C1/1036C22C47/068C22C47/10B22F2003/1014B22F2998/00
    • A method for making a composite material. Porous reinforcing material such as fiber material is charged into a container which has an opening; then substantially all of the atmospheric air in the container and in the interstices of the reinforcing material is replaced by substantially pure oxygen; and then molten matrix metal is admitted into the container through the opening so as to infiltrate into the interstices of the reinforcing material. During this infiltration the oxygen within the container and in these interstices is absorbed by an oxidization reaction, and thus substantially all the gas present within the interstices of the reinforcing material is disposed of, thus not hampering the good infiltration of the molten matrix metal into the reinforcing material. Thus a high quality composite material is formed. The oxidization reaction may either be with the molten matrix metal itself, or with a getter element provided within the container.
    • 一种制备复合材料的方法。 将诸如纤维材料的多孔增强材料装入具有开口的容器中; 则基本上所有的大气中的容器和补强材料的间隙被基本上纯的氧代替; 然后将熔融基质金属通过开口进入容器中,以便渗透到增强材料的间隙中。 在这种渗透期间,容器内和这些间隙中的氧被氧化反应吸收,因此基本上所有存在于增强材料空隙内的气体被处理,因此不会妨碍熔融基质金属进入 增强材料。 因此形成高质量的复合材料。 氧化反应可以是熔融基体金属本身,也可以是设置在容器内的吸气元件。
    • 7. 发明授权
    • Method for alloying substances
    • 合金化物质的方法
    • US4708847A
    • 1987-11-24
    • US820886
    • 1986-01-17
    • Tadashi DonomotoYoshiaki TatematsuAtsuo TanakaMasahiro Kubo
    • Tadashi DonomotoYoshiaki TatematsuAtsuo TanakaMasahiro Kubo
    • C22C1/00B22D19/02B22F3/26C22C1/04C22C47/00C22C47/08C22C47/12C22C1/03C22C33/04
    • C22C47/08B22F3/26C22C1/0475B22F2998/00
    • An alloy is made of a first material and a second material which has a substantially lower melting point than the first material, by (a) forming from the first material a body which has multiple fine interstices; (b) pouring the second material in the molten state around the body formed from the first material; and (c) allowing the resultant mass to cool. Thus, in the parts of the resultant mass in which the body formed from the first material was originally present, an alloy mass comprising the first metal and the second material alloyed together is made. Optionally, the body made from the first material may be preheated, desirably to a temperature higher than the melting point of the second material; and optionally the molten second material may be pressurized so as to enter into the interstices of the body. The first material may desirably be, for example, tungsten, cobalt, chromium, titanium, iron, nickel, silicon, manganese, copper, niobium, tantalum, vanadium, gold, silver, aluminum, molybdenum, zirconium, or zinc; and the second material may desirably be, for example, aluminum, magnesium, copper, lead, tin, or zinc.
    • 合金由第一材料和第二材料制成,第一材料和第二材料具有比第一材料低得多的熔点,(a)由第一材料形成具有多个细小间隙的主体; (b)将熔融状态的第二材料从由第一材料形成的主体周围倾倒; 和(c)使所得物质冷却。 因此,在最初存在由第一材料形成的主体的所得到的质量部分中,制成包含第一金属和第二材料合金的合金块。 可选地,由第一材料制成的主体可以被预热,期望地达到比第二材料的熔点高的温度; 并且可选地,熔融的第二材料可以被加压以进入身体的空隙。 第一种材料可以期望地是例如钨,钴,铬,钛,​​铁,镍,硅,锰,铜,铌,钽,钒,金,银,铝,钼,锆或锌; 并且第二材料可以期望地为例如铝,镁,铜,铅,锡或锌。
    • 10. 发明授权
    • Composite material manufacturing method exothermically reducing metallic
oxide in binder by element in matrix metal
    • 复合材料制造方法通过基体金属中的元素放热还原金属氧化物
    • US4468272A
    • 1984-08-28
    • US525945
    • 1983-08-24
    • Tadashi DonomotoYoshiaki TatematsuAtsuo Tanaka
    • Tadashi DonomotoYoshiaki TatematsuAtsuo Tanaka
    • B22D17/00B22D19/14C22C47/00C22C47/08C22C47/10C22C47/12C22C49/04B32B31/00
    • B22D19/14B22D17/00C22C47/10C22C49/04B22F2998/00
    • First a quantity of reinforcing material is formed into a shaped mass bound together by an inorganic binder. Next, this shaped mass is compounded with a quantity of a molten matrix metal by a pressure casting method. The molten matrix metal includes a quantity of a certain element with a strong tendency to become oxidized, and the inorganic binder includes a metallic oxide which, when brought into contact at high temperature with this certain element, is reduced thereby in an exothermic reaction. Thus, during the pressure casting, extra heat is produced as the certain element reduces the metallic oxide, and this aids good penetration of the matrix metal into the interstices of the reinforcing material. The metal remaining from the oxide is dispersed in the matrix metal. This metallic oxide may be silica, zirconia, chromium oxide, yttrium oxide, cerium oxide, ferric oxide, zirconium silicate, antimony oxide, or a mixture thereof; and the certain element may be lithium, calcium, magnesium, aluminum, beryllium, titanium, zirconium, or a mixture thereof.
    • 首先,将一定数量的增强材料形成为通过无机粘合剂结合在一起的成形块。 接着,通过压铸法将该成形体与一定量的熔融基质金属混合。 熔融基体金属包含一定量的具有强烈氧化倾向的某种元素,无机粘合剂包括金属氧化物,当与该特定元素在高温下接触时,其被放热反应降低。 因此,在压力铸造期间,随着某些元素减少金属氧化物而产生额外的热量,这有助于将基质金属良好渗透到增强材料的间隙中。 从氧化物中残留的金属分散在基质金属中。 该金属氧化物可以是二氧化硅,氧化锆,氧化铬,氧化钇,氧化铈,氧化铁,硅酸锆,氧化锑或它们的混合物; 并且该元素可以是锂,钙,镁,铝,铍,钛,锆或它们的混合物。