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    • 62. 发明授权
    • Magnetic material
    • 磁性材料
    • US5397490A
    • 1995-03-14
    • US96275
    • 1993-07-26
    • Tsuyoshi MasumotoAkihisa InoueJunichi Nagahora
    • Tsuyoshi MasumotoAkihisa InoueJunichi Nagahora
    • C22C1/00C22C1/02C22C21/00C22C45/08H01F1/00H01F1/14H01F1/147H01F1/153
    • B82Y25/00H01F1/147H01F1/153
    • A magnetic material consisting essentially of A1 and 10 to 50 at. % of at least one capable of alloying with A1 to form quasicrystals (for example, 5 to 25 at. % of at least one member selected between Cu and Pd and 5 to 35 at. % of Mn) and up to 25 at. % of at least one element having a smaller atomic radius than those of the above elements (for example, B). The magnetic material is produced by adding, to a mixture consisting of A1 and at least one element capable of alloying with A1 to form quasicrystals and including at least one transition metal, at least one element having a smaller atomic radius than those of A1 and the above elements to dissolve the element having a smaller atomic radius in a solid solution form in a quasicrystalline phase. The thus obtained magnetic crystal is useful in various applications, such as magnetic recording heads, and a process for producing the same.
    • 基本上由A1和10至50at组成的磁性材料。 至少一种能够与Al合金化以形成准晶体的至少一种(例如,在Cu和Pd之间选择的至少一种成分和5至35原子%的Mn的5至25at。%)和至多25at。 至少一种元素的原子半径小于上述元素(例如B)的原子半径的百分比。 磁性材料是通过向由Al组成的混合物和能够与Al合金化的至少一种元素混合形成准晶体并包括至少一种过渡金属,至少一种具有比A1的原子半径小的元素和 上述元素以固溶体形式在准晶相中溶解具有较小原子半径的元素。 由此获得的磁晶体可用于各种应用中,例如磁记录头,及其制造方法。
    • 65. 发明授权
    • Superplastic aluminum-based alloy material and production process thereof
    • 超塑性铝基合金材料及其制备方法
    • US5332456A
    • 1994-07-26
    • US951197
    • 1992-09-25
    • Tsuyoshi MasumotoAkihisa InoueKenji HigashiKatsumasa OhteraMakoto Kawanishi
    • Tsuyoshi MasumotoAkihisa InoueKenji HigashiKatsumasa OhteraMakoto Kawanishi
    • C22C21/00C22C45/08C22F1/04C22F1/00
    • C22C21/00C22C45/08C22F1/04Y10S420/902
    • A superplastic aluminum-based alloy material consisting of a matrix formed of aluminum or a supersaturated aluminum solid solution, whose average crystal grain size is 0.005 to 1 .mu.m, and particles made of a stable or metastable phase of various intermetallic compounds formed of the main alloying element (i.e., the matrix element) and the other alloying elements and/or of various intermetallic compounds formed of the other alloying elements and distributed evenly in the matrix, the particles having a mean particle size of 0.001 to 0.1 .mu.m. The superplastic aluminum-based alloy material is produced from a rapidly solidified material consisting of an amorphous phase, a microcrystalline phase or a mixed phase thereof by optionally heat treating the material at a prescribed temperature for a prescribed period of time and then subjecting it to a single or combined thermomechanical treatment. The superplastic aluminum-based alloy material of the present invention is suited for superplastic working.
    • 由铝或由过饱和铝固溶体形成的平均晶粒尺寸为0.005-1μm的基质和由主要形成的各种金属间化合物的稳定或亚稳相制成的颗粒组成的超塑性铝基合金材料 合金元素(即基质元素)和其它合金元素和/或由其它合金元素形成的各种金属间化合物,并均匀地分布在基质中,颗粒的平均粒度为0.001至0.1μm。 超塑性铝基合金材料由非晶相,微晶相或其混合相组成的快速凝固材料制成,可任选地在预定温度下将材料热处理规定的时间,然后将其 单一或组合的热机械治疗。 本发明的超塑性铝基合金材料适用于超塑性加工。
    • 67. 发明授权
    • Ni-Cr type alloy material
    • Ni-Cr型合金材料
    • US4655857A
    • 1987-04-07
    • US473403
    • 1983-03-08
    • Tsuyoshi MasumotoAkihisa InoueHiroyuki Tomioka
    • Tsuyoshi MasumotoAkihisa InoueHiroyuki Tomioka
    • C22C19/05C22C30/00H01C3/00H05B3/12
    • H01C3/00C22C19/058H05B3/12
    • Ni-Cr type allow materials comprising 10 to 50 atom % of Cr, 5 to 25 atom % of Al and/or Si, and the balance to make up 100 atom % of substantially pure Ni, excelling in cold workability, and exhibiting high electric resistance.These alloy materials possess very high electric resistance and small electrical resistance temperature coefficients over a wide temperature range from room temperature to elevated temperatures, and have excellent cold workability, mechanical properties, durability, ability to resist oxidation, corrosion, and fatigue as well as strain gauge sensitivity. The alloys are very useful as industrial materials of varying types including electrical resistors, precision resistors, and electrically heating wires used at elevated temperatures and bracing materials, reinforcing materials, and corrosionproofed materials used at elevated temperatures.
    • Ni-Cr型允许含有10至50原子%的Cr,5至25原子%的Al和/或Si的材料,余量为基本上纯的Ni的100原子%,具有优异的冷加工性,并且表现出高的电 抵抗性。 这些合金材料在从室温到高温的宽温度范围内具有非常高的电阻和小的电阻温度系数,并且具有优异的冷加工性,机械性能,耐久性,抗氧化,腐蚀和疲劳的能力以及应变 表灵敏度。 该合金作为不同类型的工业材料是非常有用的,这些材料包括电阻器,精密电阻器,以及在高温下使用的电加热丝,以及在高温下使用的支撑材料,增强材料和防腐材料。
    • 68. 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。