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    • 5. 发明专利
    • Electromagnetic wave absorbing heat conductive sheet
    • 电磁波吸收传热片
    • JP2010245407A
    • 2010-10-28
    • JP2009094430
    • 2009-04-08
    • Daido Steel Co Ltd大同特殊鋼株式会社
    • KOYAMA HARUOKITAMURA YOICHIRO
    • H05K9/00H01F1/00H05K7/20
    • PROBLEM TO BE SOLVED: To provide an electromagnetic wave absorbing heat conductive sheet which has high electromagnetic wave absorbing performance and heat conductive performance. SOLUTION: The electromagnetic wave absorbing heat conductive sheet has a structure formed by laminating (n) layers (n≥1) of a soft magnetic sheet 12 containing a soft magnetic material and (n+1) layers of heat conductive sheet 14a, 14b containing a highly heat conductive material alternately. The soft magnetic sheet 12 has holes 16 bored, and the heat conductive sheets 14a, 14b opposed to each other with the soft magnetic sheet 12 interposed are thermally connected to each other through the holes 16. COPYRIGHT: (C)2011,JPO&INPIT
    • 解决的问题:提供具有高电磁波吸收性能和导热性能的电磁波吸收导热片。 解决方案:电磁波吸收导热片具有层叠(n)层(n≥1)的软磁性材料和(n + 1)层的导热片14a(n + 1)形成的结构 ,14b交替地包含高导热材料。 软磁片12具有钻孔16,并且插入有软磁片12的彼此相对的导热片14a,14b通过孔16彼此热连接。版权所有(C)2011, JPO&INPIT
    • 6. 发明专利
    • Manganese-based twin-crystal-type damping alloy
    • 基于MANGANESE的双晶型阻尼合金
    • JP2008297581A
    • 2008-12-11
    • JP2007143155
    • 2007-05-30
    • Daido Steel Co Ltd大同特殊鋼株式会社
    • KITAMURA YOICHIROWATABE KENJI
    • C22C22/00C22F1/00C22F1/16
    • PROBLEM TO BE SOLVED: To provide a manganese-based twin-crystal-type damping alloy which prevents damping performance from lowering with time and shows superior damping performance over a long period. SOLUTION: A steel ingot 2 of the manganese-based twin-crystal-type damping alloy 4 includes Mn as a base, and includes, by atom%, 20±5% Cu, 5±3% Ni, 2±1% Fe and 0.5% or more but less than 1% Cr. The damping alloy is manufactured by the steps of: subjecting the steel ingot 2 to a primary working step 300 to form a material 3; subjecting the material 3 to a solid solution treatment step 400 of heating the material 3 at 850 to 925°C for four hours or longer and cooling it; subjecting the resultant material 3 to a high-temperature annealing treatment step 600 of heating the material 3 at 850 to 950°C for one hour or longer, and slowly cooling it at a constant rate. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种防止阻尼性能随时间降低的锰基双晶型阻尼合金,并且在长时间内显示出优异的阻尼性能。 解决方案:锰基双晶型阻尼合金4的钢锭2包括Mn作为基底,原子%包括20±5%的Cu,5±3%的Ni,2±1 %Fe和0.5%以上但小于1%的Cr。 阻尼合金通过以下步骤制造:将钢锭2进行初级加工步骤300以形成材料3; 对材料3进行850〜925℃加热4小时以上并冷却的固溶处理工序400; 对所得材料3进行850〜950℃下加热1小时以上的高温退火处理工序600,并以恒定的速度缓慢冷却。 版权所有(C)2009,JPO&INPIT
    • 7. 发明专利
    • Mn-cu damping alloy and producing method therefor
    • MN-CU阻尼合金及其生产方法
    • JP2008266688A
    • 2008-11-06
    • JP2007108647
    • 2007-04-17
    • Daido Steel Co Ltd大同特殊鋼株式会社
    • KITAMURA YOICHIROWATABE KENJISUEOKA NORIMICHI
    • C22C22/00C22F1/00C22F1/16
    • PROBLEM TO BE SOLVED: To provide a Mn-Cu damping alloy with which the development of cracking at the working time, is restrained and good damping characteristic can be obtained.
      SOLUTION: The Mn-Cu damping alloy is obtained by performing the following processes: (1) the solid-solution treatment process, in which the Mn-Cu ingot composed of 15-25 at% Cu and further, 0.001-0.007 at% Ca or 0.005-0.23 at% Mg and the balance Mn with inevitable impurities, is heated to solid-solution temperature of ≥800°C and ≤solidus line temperature and after holding this solid-solution temperature, this ingot is cooled at cooling speed of air-cooling or more; (2) a working process, in which this alloy solid-solution treated, is worked to a finished product shape or to target-shape or to larger shape than the finished product shape; and (3) a high temperature annealing process, in which the worked alloy is heated to the annealing temperature of ≥800°C and ≤solidus line temperature and after holding this annealing temperature, the constant speed slow cooling is performed until the temperature of the alloy reaches the range of 250-450°C.
      COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种Mn-Cu阻尼合金,其在工作时间内开裂的发展被抑制,并且可以获得良好的阻尼特性。 解决方案:通过以下方法获得Mn-Cu阻尼合金:(1)固溶处理工艺,其中由15-25at%的Cu组成的Mn-Cu锭以及0.001-0.007 在%Ca或0.005-0.23原子%Mg,余量为不可避免的杂质的Mn被加热到固溶温度≥800℃和≤solidus线温度后,保持该固溶温度后,将该锭冷却 空气冷却速度更高; (2)将处理该合金固溶体的加工工序加工成成品形状或成品形状或比成品形状大的形状; 和(3)高温退火处理,其中将加工合金加热至退火温度≥800℃和≤solidus线温度,并且在保持该退火温度之后,进行恒速缓慢冷却直到 合金达到250-450℃的范围。 版权所有(C)2009,JPO&INPIT
    • 10. 发明专利
    • METHOD FOR PRODUCING Mn-Cu BASED DAMPING ALLOY
    • 用于生产基于Mn-Cu的阻尼合金的方法
    • JP2007302930A
    • 2007-11-22
    • JP2006130973
    • 2006-05-10
    • Daido Steel Co Ltd大同特殊鋼株式会社
    • KITAMURA YOICHIROWATABE KENJI
    • C22F1/16C22C22/00C22F1/00C22F1/02
    • PROBLEM TO BE SOLVED: To provide a method for producing an Mn-Cu based damping alloy which can obtain high damping performance by suppressing macrosegregation and is less in the deterioration of damping characteristic with the lapse of time .
      SOLUTION: The method for producing an Mn-Cu based damping alloy comprises: a primary working stage where an ingot made of an Mn-Cu based damping alloy is subjected to primary working; a solid solution treatment stage where the alloy subjected to the primary working is heated to a solid solution temperature of ≥800°C to a solidus temperature, and is next subjected to rapid cooling at a cooling rate of air cooling or above; a secondary working stage where the alloy subjected to the solid solution treatment is subjected to secondary working to a final product shape or a shape larger than that; and a high temperature annealing stage where the alloy subjected to the secondary working is heated to an annealing temperature of ≥800°C to a solidus temperature, and is then subjected to constant speed annealing at 0.85 to 1.65°C/min.
      COPYRIGHT: (C)2008,JPO&INPIT
    • 解决的课题:提供一种Mn-Cu系阻尼合金的制造方法,其能够通过抑制宏观偏析而获得高阻尼性能,并且随着时间的推移在阻尼特性的劣化中较小。 解决方案:用于制造Mn-Cu基阻尼合金的方法包括:初级加工阶段,其中由Mn-Cu系阻尼合金制成的锭进行初级加工; 将进行初次加工的合金的固溶处理阶段加热至固溶温度≥800℃的固溶温度,然后以空冷或冷却以上的冷却速度进行快速冷却; 将进行固溶处理的合金进行二次加工至最终产品形状或大于其的形状的二次加工阶段; 将进行二次加工的合金加热至退火温度≥800℃至固相线温度的高温退火阶段,然后以0.85〜1.65℃/分钟进行恒速退火。 版权所有(C)2008,JPO&INPIT