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    • 2. 发明专利
    • Carbon nano-compounded magnesium alloy
    • 碳纳米复合镁合金
    • JP2010189717A
    • 2010-09-02
    • JP2009035571
    • 2009-02-18
    • Nissei Plastics Ind Co日精樹脂工業株式会社
    • KATO ATSUSHIARAI KEITASUGANUMA MASAMOTO
    • C22C49/14C22C47/04C22C47/08C22C49/04C22C101/10
    • PROBLEM TO BE SOLVED: To provide a magnesium alloy, wherein the safety management cost is eliminated and the production cost is reduced, while having strength, particularly heat-resistant strength, equal to that of a heat resistant Mg alloy. SOLUTION: The invention relates to a carbon nano-compounded magnesium alloy obtained by incorporating a carbon nanomaterial into a magnesium alloy, wherein the content ratio of the carbon nanomaterial is 9 to 30 mass%, and the minimum creep velocity obtained under the conditions that temperature is 200°C and a load is 50 MPa is ≤1×10 -5 /s. Since the minimum creep velocity is ≤1×10 -5 /s, the alloy has heat-resistant strength equal to that of Sr-containing heat resistant Mg. Additionally, since it is a carbon nano-compounded magnesium alloy obtained by incorporating a carbon nanomaterial into a magnesium alloy, the radiation component or the like is not contained, and safety management is not needed, and the reduction in production cost is made possible. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供一种镁合金,其中消除了安全管理成本并降低了生产成本,同时具有与耐热Mg合金相同的强度,特别是耐热强度。 解决方案:本发明涉及通过将碳纳米材料并入镁合金而获得的碳纳米复合镁合金,其中碳纳米材料的含量比为9〜30质量%,并且在下述获得的最小蠕变速度 温度为200℃,负载为50MPa的条件为≤1×10 -5 / s。 由于最小蠕变速度≤1×10 -5 / s,合金的耐热强度等于含Sr耐热Mg的耐热强度。 另外,由于是通过将碳纳米材料并入镁合金而得到的碳纳米复合镁合金,所以不含有辐射成分等,不需要安全管理,能够降低生产成本。 版权所有(C)2010,JPO&INPIT
    • 3. 发明专利
    • Manufacturing method of composite metal moulding material, and manufacturing method of composite metal molded article
    • 复合金属成型材料的制造方法及复合金属成型制品的制造方法
    • JP2007254862A
    • 2007-10-04
    • JP2006083191
    • 2006-03-24
    • Nissei Plastics Ind Co日精樹脂工業株式会社
    • KONO TAKUSATO TOMOYUKIKATO ATSUSHISUGANUMA MASAMOTOARAI KEITASHIBA DAISUKE
    • C22C1/10B22D17/00B22F3/10C22C1/05C22C47/08C22C47/14C22C49/04C22C49/06C22C49/14C22C101/10
    • PROBLEM TO BE SOLVED: To provide a composite metal molding material applicable even when a large amount of a carbon nano material is added.
      SOLUTION: The method for manufacturing the composite metal molding material 24 comprises: a process of obtaining a semi-molten metallic material 15 of a semi-molten state by heating a metallic material 11 to the temperature of a solid-liquid co-existence region; a process of obtaining a composite metallic material 16 by feeding the carbon nano material 12 to the semi-molten metallic material 15, and kneading the same; and a process of obtaining a composite metallic molding material 24 by heating the composite metallic material 16 to its solution heat temperature of the metallic material 11 to perform the solution treatment. By heating the material up to the semi-melting temperature after the solution treatment, permutation of phases takes place although partially. The carbon nano material is included in a new solid phase portion. Meanwhile, the amount of the carbon nano material in the new liquid portion decreases. As a result, flowability is improved in the new liquid phase portion.
      COPYRIGHT: (C)2008,JPO&INPIT
    • 要解决的问题:即使在添加大量的碳纳米材料时也可以使用复合金属成型材料。 < P>解决方案:复合金属模制材料24的制造方法包括:通过将金属材料11加热到固液共混物的温度来获得半熔融状态的半熔融金属材料15的工艺, 存在区域 通过将碳纳米材料12供给到半熔融金属材料15中并将其捏合而获得复合金属材料16的工序; 以及通过将复合金属材料16加热到金属材料11的溶解热温度来获得复合金属模制材料24以进行固溶处理的工艺。 通过在溶液处理之后将材料加热至半熔融温度,尽管部分地进行相排列。 碳纳米材料被包括在新的固相部分中。 同时,新液体部分中的碳纳米材料的量减少。 结果,新的液相部分的流动性得到改善。 版权所有(C)2008,JPO&INPIT
    • 6. 发明专利
    • Method of manufacturing compound material with high thermal conductivity
    • 制造具有高导热性的复合材料的方法
    • JP2011241432A
    • 2011-12-01
    • JP2010113602
    • 2010-05-17
    • Nissei Plastics Ind Co日精樹脂工業株式会社
    • ARAI KEITAKATO ATSUSHISUGANUMA MASAMOTO
    • C22C47/12B22D27/09C22C47/06C22C49/04C22C49/06C22C49/14C22C101/10
    • PROBLEM TO BE SOLVED: To provide a technology that can manufacture a compound material with high thermal conductivity in which high thermal conductivity performance is maintained well.SOLUTION: A mixed material 16 of a matrix metal 14 and a carbon fiber 15 as shown in Fig.(b) is sintered in a hot press-sintering furnace 20 as shown in Fig.(c). Then, each piece of the matrix metal powder 14 is linked together each other by diffusion bonding actions. As a result, the movement of the carbon fiber 15 is restricted to maintain the diffusion state. When sintering is performed, the area to contact with oxygen becomes extremely small, so that the influence of oxidization is lightened. A primary molding is a sintered product of a matrix metal in which the carbon fiber is pinched between the matrix metallic powers jointed by diffusion. Even if external power is applied to the primary molding, the matrix metal exhibits a protective action, so that the carbon fiber is not cut off. Consequently, the high thermal conductivity performance is maintained.
    • 要解决的问题:提供一种能够制造高导热性能良好地保持高导热性的复合材料的技术。 如图(c)所示,在热压烧结炉20中烧结如图(b)所示的基体金属14和碳纤维15的混合材料16。 然后,通过扩散接合动作使基体金属粉末14的每一个彼此连接。 结果,限制碳纤维15的移动以保持扩散状态。 当进行烧结时,与氧接触的区域变得非常小,从而减轻了氧化的影响。 初级模制品是基质金属的烧结产品,其中碳纤维被挤压在通过扩散结合的基体金属力之间。 即使外部电力施加到初级模制品,基体金属也具有保护作用,因此碳纤维不被切断。 因此,保持高导热性能。 版权所有(C)2012,JPO&INPIT
    • 7. 发明专利
    • Laminated structure using metal matrix composite material
    • 使用金属基复合材料的层压结构
    • JP2010267747A
    • 2010-11-25
    • JP2009116988
    • 2009-05-13
    • Nissan Motor Co LtdNissei Plastics Ind Co日産自動車株式会社日精樹脂工業株式会社
    • YAMAMOTO CHIKAMIYAMOTO KENJINANBU TOSHIKAZUSUGANUMA MASAMOTOSATO TOMOYUKIKARASAWA TOMONORI
    • H01L23/12C22C49/14C25D7/12C25D15/00
    • PROBLEM TO BE SOLVED: To provide a laminated structure using a metal matrix composite material which effectively relaxes thermal stress of upper and lower laminated members even in a higher temperature environment without using solder.
      SOLUTION: The laminated structure 10 includes a material A1, a material B5, and a material C4 sandwiched between the material A1 and material B5. Coefficients of linear expansion of the material A1 and material B5 satisfy relationship of α
      a b (in this case, α
      a expresses the coefficient of linear expansion of the material A1 and α
      b expresses the coefficient of linear expansion of the material B). The material C4 contains matrix material formed of two elements and fine particles, includes a dense state 2 and porous state 3. The material C4 on a side contacting with the material A1 is in the dense state 2, and a side contacting with the material B5 is in the porous state 3.
      COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:为了提供一种使用金属基复合材料的层压结构,即使在不使用焊料的情况下,即使在较高温度的环境中也能有效地缓和上下层合构件的热应力。 解决方案:层压结构10包括材料A1,材料B5和夹在材料A1和材料B5之间的材料C4。 材料A1和材料B5的线膨胀系数满足α a b 的关系(在这种情况下,α a 表示系数 材料A1和α的线性膨胀的曲线b 表示材料B)的线性膨胀系数。 材料C4包含由两个元素和细颗粒形成的基质材料,包括致密状态2和多孔状态3.与材料A1接触的一侧的材料C4处于致密状态2,并且与材料B5接触的一侧 处于多孔状态3.版权所有(C)2011,JPO&INPIT
    • 8. 发明专利
    • Temperature control method of injection moulding machine
    • 注塑机温度控制方法
    • JP2007276189A
    • 2007-10-25
    • JP2006102779
    • 2006-04-04
    • Nissei Plastics Ind Co日精樹脂工業株式会社
    • SUGANUMA MASAMOTOSHIOIRI TAKAHITOSAKURADA SEIICHI
    • B29C45/78B29C45/74G05D23/00G05D23/19
    • PROBLEM TO BE SOLVED: To shorten a temperature rise time by certainly eliminating the cause of contamination and burning and increasing an initial temporary target temperature.
      SOLUTION: The temperatures Ta, etc. of a plurality of the regions Ha, etc. to be heated in an injection molding machine M are respectively subjected to feedback control by a plurality of heating control parts 2a, etc. and the temporary target temperatures Tai, etc. for allowing the deviations Eia, etc. between the temporary target temperatures (temporary target temperatures Tai, etc.) and the normal target temperatures Tas, etc. in following heating control parts 2a, etc. to coincide with the deviation Ed of the present detection temperature Tdp and normal target temperature Tds in a reference heating control part 2d is calculated at the time of a temperature rise mode and used to perform temperature rise control in the following heating control parts 2a, etc.
      COPYRIGHT: (C)2008,JPO&INPIT
    • 要解决的问题:通过确定地消除污染和燃烧的原因并增加初始临时目标温度来缩短温度上升时间。 解决方案:在注射成型机M中待加热的多个区域Ha等的温度Ta等分别由多个加热控制部分2a等进行反馈控制,并且临时 目标温度等等,用于允许临时目标温度(临时目标温度Ta等)与正常目标温度Tas等之间的偏差Eia等在随后的加热控制部分2a等中与 在升温模式时计算出基准加热控制部2d中的本检测温度Tdp和正常目标温度Tds的偏差Ed,并用于在随后的加热控制部2a等中进行升温控制。 版权所有(C)2008,JPO&INPIT
    • 9. 发明专利
    • Method for producing composite metal material and method for producing composite metal molding
    • 用于生产复合金属材料的方法和用于生产复合金属成型的方法
    • JP2007204813A
    • 2007-08-16
    • JP2006024886
    • 2006-02-01
    • Nissei Plastics Ind Co日精樹脂工業株式会社
    • ARAI KEITASATO TOMOYUKIKATO ATSUSHISHIBA DAISUKESUGANUMA MASAMOTO
    • C22C1/10B22D17/00
    • PROBLEM TO BE SOLVED: To provide a technique capable of improving wettability between a carbon nanomaterial and a metal alloy material.
      SOLUTION: The production method comprises: a stage (a) where a metal alloy material 12 containing a prescribed amount of Si is made into a half-melted state, so as to crystallize out Si or an Si compound; and a stage (b) where a carbon nanomaterial 15 is kneaded into the metal alloy material 13 in which the Si compound 14 is crystallized out. According to this invention, the Si compound also plays a roll of increasing the wettability of the carbon nanomaterial. The wettability between the carbon nanomaterial and the metal alloy material can be improved. Then, since the metal alloy material containing a prescribed amount of Si is used as a starting material, the composite metal material can be produced with reduced stages.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供能够改善碳纳米材料和金属合金材料之间的润湿性的技术。 解决方案:制备方法包括:将含有规定量的Si的金属合金材料12制成半熔化状态的阶段(a),以使Si或Si化合物结晶; 和将碳纳米材料15混合到其中使Si化合物14析出的金属合金材料13中的阶段(b)。 根据本发明,Si化合物也起到提高碳纳米材料的润湿性的一卷作用。 可以提高碳纳米材料与金属合金材料之间的润湿性。 然后,由于使用含有规定量的Si的金属合金材料作为起始材料,所以能够以降低的阶段制造复合金属材料。 版权所有(C)2007,JPO&INPIT
    • 10. 发明专利
    • Method for producing carbon nanocomposite metal forming
    • 生产碳纳米复合金属成型的方法
    • JP2007154246A
    • 2007-06-21
    • JP2005349622
    • 2005-12-02
    • Nissei Plastics Ind Co日精樹脂工業株式会社
    • SUGANUMA MASAMOTOSATO TOMOYUKIKATO ATSUSHI
    • C22C1/10B22D17/00C01B31/02C22C47/04C22C47/08C22C47/14C22C49/04C22C49/06C22C101/10
    • PROBLEM TO BE SOLVED: To provide an improved technique capable of obtaining a carbon nanocomposite metal forming having higher strength. SOLUTION: The production method comprises: a stage (a) wherein carbon nanomaterials 11 and metal powders 12 are prepared; a stage (b) wherein preliminary mixing is performed; a stage (c) wherein the carbon nanomaterials 11 and metal powder 12 are completely kneaded by a mechanical alloying process; a stage (d) wherein carbon nanocomposite metal powders 13 in a form where the metal powders 12 are covered with the numerous carbon nanomaterials 11 are obtained according to the above stages; a stage (e) wherein the carbon nanocomposite metal powders 13 are packed into a die 15; and a stage (f) wherein an upper punch 16 is inserted into the die 15, and, as temperature is held to about 150°C, the carbon nanocomposite metal powders 13 are consolidated. Thus, a preliminary forming 17 can be obtained. The metal powders can be covered with the carbon nanomaterials, and the re-aggregation of the carbon nanomaterials can be suppressed. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供一种能够获得具有较高强度的碳纳米复合金属成形物的改进技术。 解决方案:制备方法包括:制备碳纳米材料11和金属粉末12的阶段(a); 执行预混合的阶段(b); (c)其中碳纳米材料11和金属粉末12通过机械合金化方法完全捏合; 根据上述阶段获得其中金属粉末12被许多碳纳米材料11覆盖的碳纳米复合材料粉末13的阶段(d) 其中将碳纳米复合金属粉末13包装到模具15中的阶段(e); 以及将上冲头16插入模具15中的阶段(f),并且当温度保持在约150℃时,碳纳米复合材料粉末13被固结。 因此,可以获得预备成型17。 可以用碳纳米材料覆盖金属粉末,并且可以抑制碳纳米材料的再聚集。 版权所有(C)2007,JPO&INPIT