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    • 21. 发明授权
    • Hard magnetic alloy, hard magnetic alloy compact and method for producing the same
    • 硬磁合金,硬磁合金紧凑型及其制造方法
    • US06692582B1
    • 2004-02-17
    • US09697632
    • 2000-10-26
    • Akinori KojimaAkihiro MakinoTakashi HatanaiYutaka YamamotoAkihisa Inoue
    • Akinori KojimaAkihiro MakinoTakashi HatanaiYutaka YamamotoAkihisa Inoue
    • H01F100
    • B82Y25/00H01F1/0579
    • A hard magnetic alloy in accordance with the present invention is composed of at least element T selected from the group consisting of Fe, Co and Ni, at least one rare earth element R, and boron (B). The hard magnetic alloy has an absolute value of the temperature coefficient of magnetization of 0.15%/° C. or less and a coercive force of 1 kOe, when being used in a shape causing a permeance factor of 2 or more. A hard magnetic alloy compact in accordance with the present invention has a texture, in which at least a part or all of the texture comprises an amorphous phase or fine crystalline phase having an average crystal grain size of 100 nm or less, is subjected to crystallization or grain growth under stress, such that a mixed phase composed of a soft magnetic or semi-hard magnetic phase and a hard magnetic phase is formed in the texture, and anisotropy is imparted to the crystal axis of the hard magnetic phase.
    • 根据本发明的硬磁合金由至少选自Fe,Co和Ni,至少一种稀土元素R和硼(B)的元素T组成。 当使用导磁系数为2以上的形状时,硬磁合金的磁化温度的绝对值为0.15%/℃以下,矫顽力为1kOe。 根据本发明的硬磁合金压块具有其中至少部分或全部组织包含平均晶粒尺寸为100nm以下的非晶相或细结晶相的织构,进行结晶化 或在应力下的晶粒生长,使得在织构中形成由软磁性或半硬磁性相和硬磁性相组成的混合相,并且赋予硬磁相的晶轴各向异性。
    • 24. 发明授权
    • Method of production glassy alloy
    • 生产玻璃态合金的方法
    • US6077367A
    • 2000-06-20
    • US25963
    • 1998-02-19
    • Takao MizushimaAkihiro MakinoAkihisa Inoue
    • Takao MizushimaAkihiro MakinoAkihisa Inoue
    • C21D6/00C22C33/04C22C45/02H01F1/153
    • C22C45/02H01F1/15308H01F1/15341
    • The present invention provides a method of producing a glassy alloy which has soft magnetism at room temperature and high resistivity and which can be easily obtained in a bulk shape thicker than an amorphous alloy ribbon obtained by a conventional melt quenching method. In this method, a melted metal having a supercooled liquid temperature width .DELTA.T.sub.x of 35.degree. C. or more, which is expressed by the equation .DELTA.T.sub.x =T.sub.x -T.sub.g (wherein T.sub.x indicates the crystallization temperature, and T.sub.g indicates the glass transition temperature), is sprayed on a cooling body under movement to form a ribbon-shaped glassy alloy material; and the glassy alloy is then heat-treated by heating at a heating rate of 0.15 to 3.degree. C./sec and then cooling.
    • 本发明提供了一种在室温下具有软磁性和高电阻率的玻璃状合金的制造方法,其可以容易地以比通过常规熔融淬火法获得的非晶态合金带更厚的块状获得。 在该方法中,具有35℃或更高的过冷液体温度宽度DELTA Tx的熔融金属由等式DELTA Tx = Tx-Tg(其中Tx表示结晶温度,Tg表示玻璃化转变温度 )在运动下喷洒在冷却体上以形成带状玻璃状合金材料; 然后通过以0.15〜3℃/秒的加热速度加热然后冷却来对玻璃状合金进行热处理。
    • 25. 发明授权
    • High strength and high rigidity aluminum-based alloy
    • 高强度高刚性铝基合金
    • US06017403A
    • 2000-01-25
    • US601949
    • 1996-02-15
    • Tsuyoshi MasumotoAkihisa InoueYuma Horio
    • Tsuyoshi MasumotoAkihisa InoueYuma Horio
    • C22C21/00
    • C22C21/00
    • An aluminum-based alloy having the general formula Al.sub.x L.sub.y M.sub.z (wherein L is Mn or Cr; M is Ni, Co, and/or Cu; and x, y, and z, representing a composition ratio in atomic percentages, satisfy the relationships x+y+z=100, 75.ltoreq.x.ltoreq.95, 2.ltoreq.y.ltoreq.15, and 0.5.ltoreq.z.ltoreq.10) having a metallographic structure comprising a quasi-crystalline phase possesses high strength and high rigidity. In order to enhance the ductility and toughness of the aluminum-based alloy, the atomic percentage of M may be further limited to 0.5.ltoreq.z.ltoreq.4, and more preferably to 0.5.ltoreq.z.ltoreq.3. The aluminum-based alloy is useful as a structural material for aircraft, vehicles and ships, and for engine parts; as material for sashes, roofing materials, and exterior materials for use in construction; or as materials for use in marine equipment, nuclear reactors, and the like.
    • 具有通式AlxLyMz(其中L是Mn或Cr; M是Ni,Co和/或Cu;和表示原子百分比的组成比的x,y和z)的铝基合金满足关系x + 具有包含准结晶相的金相组织的y + z = 100,75,或者= x,y = x,z = 100,75
    • 30. 发明授权
    • Sacrificial electrode material for corrosion prevention
    • 用于防腐的牺牲电极材料
    • US5423969A
    • 1995-06-13
    • US217009
    • 1994-03-23
    • Tsuyoshi MasumotoAkihisa InoueTakashi SakumaToshisuke Shibata
    • Tsuyoshi MasumotoAkihisa InoueTakashi SakumaToshisuke Shibata
    • C22C23/00C22C45/00C23F13/00C23F13/14C25B11/04
    • C23F13/14
    • The present invention provides a sacrificial electrode material which consists of a single phase amorphous structure or a structure consisting of an amorphous phase and a crystalline solid solution phase and provides electrochemical corrosion protection to metallic articles exposed to an aqueous electrolytic solution. The electrode material is prepared by rapidly quenching a magnesium-based alloy material from the liquid phase or vapor phase thereof, the magnesium-based alloy material consisting the general formula: Mg.sub.bal X1.sub.a X2.sub.b or Mg.sub.bal X1.sub.a, wherein X1 is at least one element selected from the group consisting of Al, Zn, Ga, Ca and In; X2 is at least one element selected from the group consisting of Mm (misch metal), Y and rare earth metal elements; a and b are, in atomic percentages, 5.0.ltoreq.a.ltoreq.35.0 and 3.0.ltoreq.b.ltoreq.25.0, respectively. The magnesium-based alloy material may further contain one or more transition metal elements in their total contents not exceeding 1.0 atomic %.
    • 本发明提供一种牺牲电极材料,其由单相无定形结构或由非晶相和结晶固溶体相组成的结构组成,并且对暴露于水性电解液的金属制品提供电化学腐蚀保护。 通过从其液相或气相快速淬火镁基合金材料制备电极材料,镁基合金材料由以下通式组成:MgbalX1aX2b或MgbalX1a,其中X1是选自以下的至少一种元素: 的Al,Zn,Ga,Ca和In; X2是选自由Mm(混合稀土金属),Y和稀土金属元素组成的组中的至少一种元素; a和b分别为原子百分比为5.0