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    • 1. 发明专利
    • Metal powder composite and manufacturing method therefor
    • 金属粉末复合材料及其制造方法
    • JP2009030090A
    • 2009-02-12
    • JP2007193822
    • 2007-07-25
    • Honda Motor Co LtdJiemuko:KkMitsubishi Materials Corp三菱マテリアル株式会社本田技研工業株式会社株式会社ジェムコ
    • ATSUGI TSUTOMUIMAI HIROYUKISAKATANI OSAMUNISHIMURA TAISUKEKOIKE SEIICHI
    • B22F1/02B22F3/02B22F3/15B22F7/04
    • PROBLEM TO BE SOLVED: To provide a metal powder composite containing fine carbon fiber, an application material thereof and further a metal composite material which is superior in the homogeneity of the quality of the material and is suitable for an automotive material, and to provide a manufacturing method therefor.
      SOLUTION: The metal powder composite has a mesh-shaped coating film made from the fine carbon fiber with a nanometric size on the surface of a metal powder. For instance, the fine carbon fiber with the nanometric size is a carbon nanotube or a carbon nanofiber which has an average fiber diameter of 1 nm to 160 nm, has an aspect ratio of 5 or more and has an oxidized surface thereon; and is dispersed on the surface of the metallic powder having an average primary particle size of 0.1 μm to 100 μm. A metal composite is formed by sintering the metallic powder composite. A stacked metal composite is formed by stacking the metal composite on a substrate surface. The above composites are superior in mechanical strength, electroconductivity and thermal conductivity.
      COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种含有细碳纤维的金属粉末复合材料,其应用材料以及材料质量均匀性优异并适用于汽车材料的金属复合材料,以及 以提供其制造方法。 解决方案:金属粉末复合材料具有由金属粉末表面上的纳米尺寸的细碳纤维制成的网状涂膜。 例如,纳米尺寸的细碳纤维是平均纤维直径为1nm〜160nm,长径比为5以上,氧化面的碳纳米管或碳​​纳米纤维, 并分散在平均一次粒径为0.1μm〜100μm的金属粉末的表面。 通过烧结金属粉末复合材料形成金属复合材料。 通过将金属复合材料堆叠在基板表面上来形成堆叠的金属复合材料。 上述复合材料在机械强度,导电性和导热性方面均优异。 版权所有(C)2009,JPO&INPIT
    • 2. 发明专利
    • Magnesium alloy, and method for producing the same
    • 镁合金及其制造方法
    • JP2009191352A
    • 2009-08-27
    • JP2008036690
    • 2008-02-18
    • Honda Motor Co LtdToyama Gokin Kk富山合金株式会社本田技研工業株式会社
    • NAKAMURA TAKEYOSHIKOIKE SEIICHIHANAKI SATORUNAGAKI SEIWA
    • C22C23/06B22D11/00B22D11/049B22D21/04C22F1/00C22F1/06
    • PROBLEM TO BE SOLVED: To provide a magnesium alloy having excellent plastic workability, and further comprising an Mg
      12 ZnY phase showing a long period structure in an α-Mg phase, and to provide a method for producing the same.
      SOLUTION: The magnesium alloy is obtained by holding a continuously cast rod Ma obtained by continuously feeding a molten metal M obtained by melting Mg, Zn and Y into a mold 3, and cooling the same inside the mold 3 at an atmospheric temperature of 250 to 450°C for 30 min to 24 hr, and heat-treating the same, and includes the Mg
      12 ZnY phase 12 indicating a long period structure precipitated in an α-Mg phase 11. In the method for producing the magnesium alloy, the molten metal M obtained by melting Mg, Zn and Y is continuously fed to the mold 3, and is cooled in the mold 3 to obtain a continuously cast bar Ma, and the continuously cast bar Ma is held at 30 min to 24 hr at an atmospheric temperature of 250 to 450°C, and is subjected to heat treatment. The continuously cast bar Ma subjected to the heat treatment is subjected to plastic working, and strain is introduced therein. The magnesium alloy includes Zr together with Zn and Y.
      COPYRIGHT: (C)2009,JPO&INPIT
    • 待解决的问题:为了提供具有优异的塑性加工性的镁合金,并且还包含在α-Mg相中显示长周期结构的Mg SB 12 ZnY相,并且提供一种方法 为了生产相同。 解决方案:通过将通过将Mg,Zn和Y熔化而获得的熔融金属M连续地进料到模具3中而获得的连续铸造棒Ma,并在大气温度下将其冷却到模具3内部,从而获得镁合金 在250〜450℃下进行30分钟〜24小时的热处理,并且包括表示在α-Mg相11中析出的长周期结构的Mg SB 12 ZnY相12。 将镁合金的制造方法,将Mg,Zn,Y熔融而得到的熔融金属M连续地供给到模具3中,并在模具3中冷却,得到连铸棒Ma,连铸坯Ma为 在250〜450℃的大气温度下保持30分钟〜24小时,进行热处理。 对进行了热处理的连续铸造坯材Ma进行塑性加工,在其中引入应变。 镁合金包括与Zn和Y一起的Zr。版权所有(C)2009,JPO&INPIT
    • 3. 发明专利
    • Method for producing composite metallic material, and composite metallic material
    • 生产复合金属材料的方法和复合金属材料
    • JP2009235542A
    • 2009-10-15
    • JP2008085663
    • 2008-03-28
    • Honda Motor Co LtdNissin Kogyo Co Ltd日信工業株式会社本田技研工業株式会社
    • YOKOYAMA KAZUYUKINOGUCHI TORUMAGARIO AKIRAKOIKE SEIICHINISHIMURA TAISUKE
    • C22C47/08B22F9/08B22F9/16C01B31/02C22C47/02C22C49/06C22C49/14C22C101/10
    • PROBLEM TO BE SOLVED: To provide a method for producing a metallic composite material having reduced vacancies by improving the permeability of a molten metal in a casting method according to a permeation process, and to provide a composite metallic material.
      SOLUTION: The method for producing a composite metallic material comprises stages (a) to (c). In the stage (a), low oxygen metal grains and carbon nanofiber are mixed into an elastomer, and the mixture is dispersed by shearing force, so as to obtain a composite elastomer. In the stage (b), the composite elastomer A is heat-treated, and the elastomer contained in the composite elastomer is decomposed and vaporized, so as to obtain an intermediate material. In the stage (c), a molten metal is permeated into a space of the intermediate material within a furnace 50 in a reducing atmosphere, and is thereafter solidified, so as to obtain a composite metallic material. An oxygen content in the low oxygen metal grains is 0 to
    • 待解决的问题:提供一种通过根据渗透方法在铸造方法中提高熔融金属的渗透性而制造具有降低的空位的金属复合材料的方法,并提供复合金属材料。 &lt; P&gt;解决方案:复合金属材料的制造方法包括阶段(a)〜(c)。 在阶段(a)中,将低氧金属颗粒和碳纳米纤维混合成弹性体,通过剪切力将混合物分散,得到复合弹性体。 在阶段(b)中,对复合弹性体A进行热处理,将复合弹性体中所含的弹性体分解挥发,得到中间材料。 在阶段(c)中,将熔融金属在还原气氛中的炉50内渗透到中间体的空间内,然后固化,得到复合金属材料。 低氧金属颗粒中的氧含量为0〜<0.3质量%。 通过阶段(a)获得的复合弹性体,抑制了低氧金属颗粒的氧化。 版权所有(C)2010,JPO&INPIT
    • 8. 发明专利
    • Magnesium alloy, and method for manufacturing magnesium alloy member
    • 镁合金和制造镁合金构件的方法
    • JP2008231536A
    • 2008-10-02
    • JP2007075085
    • 2007-03-22
    • Honda Motor Co Ltd本田技研工業株式会社
    • KOIKE SEIICHINAKAMURA TAKEYOSHIIENAGA YUICHI
    • C22C23/06C22C23/04C22F1/00C22F1/06
    • PROBLEM TO BE SOLVED: To provide a magnesium alloy having improved material strength and a method for manufacturing a magnesium alloy member having improved material strength.
      SOLUTION: The magnesium alloy is a magnesium alloy containing Mg, Zn and Y and contains at least a granular intermetallic compound Mg
      3 Y
      2 Zn
      3 phase 3 and an Mg
      12 ZnY phase 2 showing a long period structure, and further, the intermetallic compound Mg
      3 Y
      2 Zn
      3 phase 3 has a particle size ranging from 40 to 2,500 nm. The method comprises: a step of obtaining a casting by casting a magnesium alloy containing Mg, Zn and a rare earth element; a step of obtaining an extruded material by heating the casting to a temperature ranging from 350 to 500°C and applying extrusion at an extruding ratio ranging from 1.5 to 12; and a step of obtaining a forging by heating the extruded material to a temperature ranging from 350 to 500°C and carrying out forging. The rare earth element is at least one element selected from the group consisting of Y, Dy, Ho, Er, Gd, Tb and Tm.
      COPYRIGHT: (C)2009,JPO&INPIT
    • 待解决的问题:提供具有改进的材料强度的镁合金和具有改进的材料强度的镁合金构件的制造方法。 解决方案:镁合金是含有Mg,Zn和Y的镁合金,并且至少含有颗粒状金属间化合物Mg Y 2 Zn < / SB>相3和显示长周期结构的Mg Y 2 Zn 相3具有40-2,500nm的粒度。 该方法包括:通过铸造含有Mg,Zn和稀土元素的镁合金获得铸件的步骤; 通过将铸件加热至350〜500℃的温度并以1.5〜12的挤出比施加挤出而获得挤出材料的步骤; 以及通过将挤出的材料加热至350〜500℃的温度并进行锻造而获得锻造的工序。 稀土元素是选自Y,Dy,Ho,Er,Gd,Tb和Tm中的至少一种元素。 版权所有(C)2009,JPO&INPIT
    • 9. 发明专利
    • WET CLUTCH DISC
    • JPH09184521A
    • 1997-07-15
    • JP35224295
    • 1995-12-28
    • HONDA MOTOR CO LTD
    • TOKUNE TOSHIOKOBAYASHI HIROTOKOIKE SEIICHI
    • F16D13/62F16D69/02
    • PROBLEM TO BE SOLVED: To drastically improve durability, so as to provide further excellent initial characteristics by setting the modulus of elasticity of a carbon fiber reinforced composite material to be used for at least the front surface into the specified value range, and setting the porosity into the specified value range. SOLUTION: The modulus of elasticity of a carbon fiber reinforced composite material to be used for at least the front surface of a wet clutch disc is set in the range of 200 to 1500kgf/cm . The porosity is set in the range of 15 to 70%. In a manufacturing method for the carbon fiber reinforced composite material, a carbon fiber and a matrix are mixed, put in a metal mold, heated in the metal mold, and molded by hardening resin. As a method for mixing both sides, a method in which a carbon fiber and a matrix are stirred and mixed or a matrix is impregnated in a collective body of carbon fiber is used. As a molding method, a press molding in the range of 30 to 500kgf/cm is used. The resin hardening temperature is set in the range of 150 to 300 deg.C. Solid lubricant, adrasion resistant materials, or the like are added to the carbon fiber reinforced composite material as necessary.