会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 65. 发明授权
    • Iron-base alloy materials having excellent workability
    • 具有优良加工性的铁基合金材料
    • US4586957A
    • 1986-05-06
    • US585097
    • 1984-03-01
    • Tsuyoshi MasumotoAkihisa InoueHiroyuki Tomioka
    • Tsuyoshi MasumotoAkihisa InoueHiroyuki Tomioka
    • C22C38/00C22C19/05C22C22/00C22C27/06C22C30/00C22C38/58C22C45/02C22C38/06C22C38/18C22C38/40
    • C22C45/02
    • Three basic types of iron-base alloys are disclosed as follows. An iron-base alloy having excellent workability comprising 2 to 60 atomic % of at least one of Ni and Mn, 7.5 to 60 atomic % of Cr, 0.5 to 12 atomic % of Al, 0.5 to 10 atomic % of at least one of C, B and P and the balance consisting substantially of Fe. An iron-base alloy having excellent workability comprising 2 to 60 atomic % of at least one of Ni and Mn, 7.5 to 60 atomic % of Cr, 1 to 15 atomic % of Si, 0.5 to 10 atomic % of at least one of C, B and P and the balance consisting substantially of Fe. Also provided is an iron-base alloy having excellent workability comprising 2 to 60 atomic % of at least one of Ni and Mn, 7.5 to 60 atomic % of Cr, 0.25 to 15 atomic % of Si, 0.5 to 10 atomic % of at least one of C, B and P, 0.02 to 0.5 atomic % of Al, and the balance consisting substantially of Fe. These Fe-base alloys are highly ductile and have high workability. By cold-working, they have very high tensile strength, and superior corrosion resistance and fatigue resistance to conventional Fe-base alloy materials. They are very useful as various industrial materials and composite materials.
    • 铁基合金的三种基本类型公开如下。 具有优异的加工性的铁基合金,其包含Ni和Mn中的至少一种为2〜60原子%,Cr为7.5〜60原子%,Al为0.5〜12原子%,C为C为0.5〜10原子% ,B和P,余额基本上由Fe组成。 具有优异的加工性的铁基合金,其包含Ni和Mn中的至少一种为2〜60原子%,Cr为7.5〜60原子%,Si为1〜15原子%,C为0.5〜10原子% ,B和P,余额基本上由Fe组成。 还提供了一种铁基合金,其具有优异的加工性,其包括2至60原子%的Ni和Mn中的至少一种,7.5至60原子%的Cr,0.25至15原子%的Si,至少0.5至10原子% C,B和P之一,0.02至0.5原子%的Al,余量基本上由Fe组成。 这些Fe基合金具有高延展性并且具有高的可加工性。 通过冷加工,它们具有非常高的拉伸强度,并且对于常规的Fe基合金材料具有优异的耐腐蚀性和耐疲劳性。 它们作为各种工业材料和复合材料非常有用。
    • 67. 发明授权
    • Forming process of amorphous alloy material
    • 非晶合金材料的成型工艺
    • US6027586A
    • 2000-02-22
    • US210139
    • 1994-03-17
    • Tsuyoshi MasumotoAkihisa InoueNobuyuki NishiyamaHiroyuki HorimuraToshisuke Shibata
    • Tsuyoshi MasumotoAkihisa InoueNobuyuki NishiyamaHiroyuki HorimuraToshisuke Shibata
    • B21D26/02B21D26/021C22C45/00C22C45/10
    • C22C45/00B21D26/02C22C45/005C22C45/10Y10T29/49805
    • Disclosed herein is a process for forming an amorphous alloy material capable of showing glass transition, which comprises holding the material between frames arranged in combination; and heating the material at a temperature between its glass transition temperature (Tg) and its crystallization temperature (Tx) and, at the same time, producing a pressure difference between opposite sides of the material, whereby the material is brought into close contact against a forming mold disposed on one side of the material. As an alternative, the forming mold is brought into close contact against the amorphous material in a direction opposite to the pressing direction for the amorphous material. By the above processes, precision-formed products of amorphous alloys can be manufactured and supplied at low cost. These formed amorphous alloy products can be used as mechanical structure parts and components of high strength and high corrosion resistance, various strength members, electronic parts, arts and crafts, original printing plates, or the like.
    • 本文公开了一种用于形成能够显示玻璃化转变的非晶合金材料的方法,其包括将材料保持在组合布置的框架之间; 并在其玻璃化转变温度(Tg)与其结晶温度(Tx)之间的温度下加热材料,同时在材料的相对侧之间产生压力差,由此使材料与 成型模设置在材料的一侧。 作为替代方案,成形模与非晶材料在与非晶材料的按压方向相反的方向上紧密接触非晶材料。 通过上述方法,可以以低成本制造和供应非晶合金的精密成型产品。 这些形成的非晶合金产品可以用作高强度和高耐蚀性的机械结构部件和部件,各种强度部件,电子部件,工艺品,原始印版等。
    • 70. 发明授权
    • Ultrafine particles of amorphous metal and method for production thereof
    • 非晶态金属微粒及其制造方法
    • US5578108A
    • 1996-11-26
    • US313827
    • 1994-09-28
    • Tadashi YamaguchiKatsutoshi NosakiAkihisa InoueTsuyoshi Masumoto
    • Tadashi YamaguchiKatsutoshi NosakiAkihisa InoueTsuyoshi Masumoto
    • B22F9/14B22F1/00B22F9/12C22C1/00C22C45/00C22C45/02C22C45/10C23C14/00
    • B22F9/12C22C1/002C22C45/02C22C45/10B22F2999/00
    • Ultrafine amorphous metal particles which combine the properties of ultrafine particles with those of an amorphous alloy and a method for the production thereof are disclosed. The ultrafine amorphous metal particles are produced by a method which comprises discharging a plasma arc against a raw metal capable of forming a carbide in a reaction gas using an inert gas as a main component thereof and containing a hydrocarbon gas, and allowing the metal which has been consequently vaporized to contact the reaction gas which has been consequently converted into a plasma, thereby inducing formation of a solid solution of carbon atoms in the vaporized metal and quenching the solid solution in the reaction gas to confer an amorphous structure thereon. As the raw metal, at least one metal selected from the group consisting of Fe, Mo, Nb, Ta, Ti, Zr, Al, Si, and Cr is preferably used. By this method are obtained ultrafine amorphous metal particles which comprise the metal mentioned above, possess at least 50% by volume of an amorphous phase, and have particle diameters of not more than 500 nm.
    • 公开了将超细颗粒的性质与非晶合金的特性结合的超细无定形金属颗粒及其制造方法。 超细非晶态金属颗粒通过以下方法制造:使用惰性气体作为主要成分并含有烃气体的反应气体中能够形成碳化物的原料的等离子体电弧放电, 随后蒸发以接触已经转化成等离子体的反应气体,从而在蒸发的金属中引起碳原子的固溶体的形成,并淬灭反应气体中的固溶体以赋予其非晶结构。 作为原料金属,优选使用选自Fe,Mo,Nb,Ta,Ti,Zr,Al,Si和Cr中的至少一种金属。 通过该方法获得了包含上述金属的超细无定形金属颗粒,具有至少50体积%的非晶相,并且具有不大于500nm的粒径。