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    • 71. 发明专利
    • Spheroidal graphite cast iron tube and method for producing the same
    • SPHEROIDAL石墨铸铁管及其制造方法
    • JP2010189706A
    • 2010-09-02
    • JP2009035314
    • 2009-02-18
    • Kurimoto Ltd株式会社栗本鐵工所
    • NAKAMOTO KOJITSUTSUMI SHINPEISAKAMOTO KAZUYANAKAMICHI NOBORUMICHIURA YOSHISADA
    • C22C37/04B22D1/00B22D13/02B22D27/20C21C1/10C21D5/00C22C33/10C22C38/00C22C38/02
    • PROBLEM TO BE SOLVED: To provide a spheroidal graphite cast iron tube which has high strength and high toughness.
      SOLUTION: The spheroidal graphite cast iron tube has a composition containing, by weight, 3.20 to 4.00% C, 1.40 to 3.00% Si, 0.10 to 1.00% Mn, 0.02 to 0.08% Mg and 0.01 to 0.20% Cr, and further containing at least one kind selected from among Sn and Cu in the range satisfying 0.050≤Sn(wt.%)+Cu(wt.%)/10≤0.089, and the balance Fe with inevitable impurities, and the spheroidal graphite cast iron tube has constitution in which the area ratio of pearlite in the matrix structure is 50 to 90%, and the number of grains of graphite crystallized out in the matrix structure is controlled to ≥500 pieces/mm
      2 and the average grain diameter thereof is controlled to ≤15 μm, consequently the high strength and high toughness spheroidal graphite cast iron tube having tensile strength equal to or above that of FCD600 and elongation equal to that of FCD450 is obtained.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供具有高强度和高韧性的球墨铸铁管。 < P>解决方案:球墨铸铁管具有重量含有3.20至4.00%的C,1.40至3.00%的Si,0.10至1.00%的Mn,0.02至0.08%的Mg和0.01至0.20%的Cr的组成,以及 进一步含有选自Sn和Cu中至少一种在满足0.050≤Sn(wt。%)+ Cu(wt。%)/10≤0.089的范围内,余量为Fe和不可避免的杂质,并且球墨铸铁 管具有基质结构中的珠光体的面积率为50〜90%的结构,将在基体结构中析出的石墨的晶粒数控制为≥500个/ mm 2 , 其平均粒径控制在≤15μm,得到拉伸强度等于或高于FCD600的伸长率等于FCD450的高强度高韧性球墨铸铁管。 版权所有(C)2010,JPO&INPIT
    • 72. 发明专利
    • Integrated conduction structure for metal conduit
    • 金属导管集成导电结构
    • JP2008281136A
    • 2008-11-20
    • JP2007126893
    • 2007-05-11
    • Kurimoto Ltd株式会社栗本鐵工所
    • YAMADA YOSHINOBUMICHIURA YOSHISADASHIMOYASU TETSUJI
    • F16L1/024C23F13/00E21D9/06F16L58/00
    • PROBLEM TO BE SOLVED: To prevent the breakage of a conductive member during expanding and bending a joint portion. SOLUTION: Metal pipe bodies 1, 1 connected to each other via the joint portion 2 are embedded in a sheath pipe P via a filler G, the pipe bodies 1, 1 with the joint portion 2 therebetween are linked to each other via a conductor 12 so that the pipe bodies 1, 1 are conducted with each other, and a movable portion 20 is provided in the conductor 12 for allowing expansion. Thus, when the joint portion 2 is expanded and bent, the conductor 12 can be moved following the movement of the pipe body 1, and so its breakage is prevented. Around the movable portion 20, a protecting member 21 is provided which is formed of a foamed resin molding in close contact with the movable portion 20. Other portions than the movable portion 20 are covered with a protecting member 22 which is formed of a resin protecting pipe, to isolate the conductor 12 from the filler G around the pipe body 1. When the pipe body 1 and the protecting member 21 are moved relative to the filler G with the expansion of the joint portion 2, a void to the filler G therearound is secured to avoid barrier in moving the movable portion 20. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:为了防止在膨胀和弯曲接合部分期间导电构件的断裂。 解决方案:经由接合部2彼此连接的金属管体1,1经由填料G嵌入鞘管P中,其间具有接头部分2的管体1,1彼此连接经由 导体12,使得管体1,1彼此导通,并且可动部分20设置在导体12中以允许膨胀。 因此,当接头部分2膨胀和弯曲时,导体12可以随着管体1的运动而移动,因此防止了其断裂。 围绕活动部分20设置保护构件21,该保护构件21由与可动部分20紧密接触的发泡树脂模制件形成。与可动部分20相比,其它部分被保护构件22覆盖,保护构件22由树脂保护 管道,以将导体12与管体1周围的填料G隔离。当管体1和保护构件21随着接合部2的膨胀而相对于填料G移动时,到其周围的填料G的空隙 固定以避免移动可移动部分20时的障碍。版权所有:(C)2009,JPO&INPIT
    • 74. 发明专利
    • Powder coating material and method for producing the same
    • 粉末涂料及其制造方法
    • JP2004300306A
    • 2004-10-28
    • JP2003095698
    • 2003-03-31
    • Tatsuhiko AizawaDainippon Toryo Co LtdKurimoto LtdMeishin Kk名神株式会社大日本塗料株式会社株式会社栗本鐵工所龍彦 相澤
    • KITAGAWA MASAYOSHIMICHIURA YOSHISADATAKAHARA WATARUYAMAMOTO YOSHIAKISANO HIDEJIAIZAWA TATSUHIKOADACHI TOSHIHIKO
    • C09D201/00C09D5/03
    • PROBLEM TO BE SOLVED: To improve productivity of a powder coating material, and dispersibility of a resin, a pigment, a curing agent and the like which are raw materials therefor.
      SOLUTION: The method for producing the powder coating material comprises mixing the resin, the pigment, the curing agent and the like which are the raw materials for the powder coating material, charging the mixed product in a cavity 1a of a mold 1, and repeatedly adding a load to the mixture by punches 2 and 3 from upper and lower sides, that is, by a bulk mechanical alloying (BMA) method to disperse and mix the raw materials. A melting step by heat becomes unnecessary by dispersing the raw materials by the BMA method to enable constrained conditions of the raw materials therefor to be eliminated. Further, the amount of the curing agent is reduced to make the coating operability excellent by increasing the dispersibility of the curing agent. A low-temperature curable coating material can be designed, and a curing agent which can not be used conventionally can be used to widen the width of selection of the curing agent because the melting step becomes unnecessary.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 待解决的问题:提高作为原料的粉末涂料的生产率和树脂,颜料,固化剂等的分散性。 < P>解决方案:粉末涂料的制造方法包括将作为粉末涂料的原料的树脂,颜料,固化剂等混合,将混合物在模具1的空腔1a内 并且通过上下两侧的冲头2和3,即通过大量机械合金化(BMA)方法向混合物反复添加负荷,以分散和混合原料。 通过用BMA法分散原料而不需要通过加热的熔融步骤,以消除原料的限制条件。 此外,通过降低固化剂的分散性,可以减少固化剂的使用量,使涂布操作性优异。 可以设计低温固化涂层材料,并且可以使用常规不能使用的固化剂来扩大固化剂的选择宽度,因为不需要熔融步骤。 版权所有(C)2005,JPO&NCIPI
    • 76. 发明专利
    • Pipe end corrosion-resistant structure
    • 管端耐腐蚀结构
    • JP2003322292A
    • 2003-11-14
    • JP2002131455
    • 2002-05-07
    • Kurimoto Ltd株式会社栗本鐵工所
    • HIRATA SHOICHIKITAGAWA MASAYOSHIMICHIURA YOSHISADAYAMAMOTO YOSHIHIKO
    • F16L21/00F16L57/00
    • PROBLEM TO BE SOLVED: To provide a pipe end corrosion-resistant structure which is free from any troubles even when used for a water supply pipe.
      SOLUTION: In a pipe end corrosion-resistant structure in an NS-type pipe joint having an expansion function, a spigot 2a of one pipe 2 is inserted in a socket of the other pipe, a lock ring is provided on an inner surface of the socket, and a ring locked to the lock ring is provided on an outer surface of the spigot 2a. A corrosion-resistant core 7 formed of ethylene propylene rubber (EPR) fitted to the pipe end of the spigot 2a is covered from an outer surface of an end of the spigot so as to reach an inner surface through the end face of the spigot, and fixed thereto. A seal material 20 which is a polyethylene tape 21 with an adhesive surface thereof formed of acrylic adhesive is adhered to an exposed surface of a groove 4a for a spigot ring. The EPR and the acrylic adhesive have no troubles even when they are brought into contact with tap water.
      COPYRIGHT: (C)2004,JPO
    • 要解决的问题:提供即使在用于供水管时也没有任何问题的管端耐腐蚀结构。

      解决方案:在具有膨胀功能的NS型管接头中的管端耐腐蚀结构中,一根管2的插口2a插入另一管的插座中,锁定环设置在内侧 插座的表面和锁定在锁定环上的环设置在插口2a的外表面上。 由安装在插口2a的管端的乙丙橡胶(EPR)形成的耐腐蚀芯7从套管的端部的外表面覆盖,以通过套管的端面到达内表面, 并固定在其上。 作为由丙烯酸系粘合剂形成的粘合剂表面的聚乙烯带21的密封材料20粘接到用于插口环的槽4a的露出面上。 EPR和丙烯酸粘合剂即使在与自来水接触时也没有问题。 版权所有(C)2004,JPO

    • 77. 发明专利
    • Method for predicting softening temperature of thermoplastic resin
    • 预测热塑性树脂软化温度的方法
    • JP2003294660A
    • 2003-10-15
    • JP2002095758
    • 2002-03-29
    • Kenji AzumaKurimoto Ltd健司 東株式会社栗本鐵工所
    • TORII HIDEYAMICHIURA YOSHISADAKITAGAWA MASAYOSHIAZUMA KENJI
    • G01N25/04G06F17/50
    • PROBLEM TO BE SOLVED: To quickly and surely predict a softening temperature of a thermoplastic resin by calculating as efficiently as possible and simply, easily and surely evaluate a thermal property of the thermoplastic resin before synthesis.
      SOLUTION: In a method for predicting the softening temperature of the thermoplastic resin with designed molecules by molecular simulation using molecular dynamics calculation, a molecular aggregation model comprises an aggregation of 300-5000 atoms having a molecular mass distribution approximated to a molecular mass distribution of the thermoplastic resin. The model is built by inputting data of the molecular mass distribution and density as an initial condition of calculation, the most stable structure in an amorphous state of the molecular aggregation model is found by the molecular dynamics calculation, a time-series change of interaction energy within and between molecules of the molecular aggregation model is found by simulation calculation using molecular dynamics when a temperature is changed in the most stable structure, and a temperature corresponding to an inflection point of an obtained energy convergence value is determined as a predicted value of the softening temperature.
      COPYRIGHT: (C)2004,JPO
    • 要解决的问题:通过尽可能有效地计算,简单,容易且可靠地评价热塑性树脂在合成前的热性能,快速,可靠地预测热塑性树脂的软化温度。 解决方案:在使用分子动力学计算通过分子模拟预测具有设计分子的热塑性树脂的软化温度的方法中,分子聚集模型包括具有近似分子量的分子量分布的300-5000个原子的聚集 分布热塑性树脂。 该模型通过输入分子质量分布和密度数据作为计算的初始条件,通过分子动力学计算发现分子聚集模型的非晶态最稳定的结构,相互作用能量的时间序列变化 在分子聚集模型的分子之间和之间通过使用分子动力学的模拟计算发现,当温度在最稳定的结构中变化时,与获得的能量收敛值的拐点相对应的温度被确定为 软化温度。 版权所有(C)2004,JPO
    • 80. 发明专利
    • PIPE OUTSIDE SURFACE COATING METHOD AND APPARATUS FOR THE SAME
    • JP2003265990A
    • 2003-09-24
    • JP2002068886
    • 2002-03-13
    • KURIMOTO LTD
    • KAJIWARA YOSHIHISASAITO MASAHIKOMICHIURA YOSHISADA
    • B05D1/02B05B1/28B05B13/02B05D3/00B05D7/14
    • PROBLEM TO BE SOLVED: To improve deposition efficiency. SOLUTION: The outside surface of a rotating pipe P is coated by spraying a coating material (a) from a gun 1. The coating material particles (a) are deposited on the nearer side from the outside surface vertically above the pipe P by inclining the spray direction of the coating material (a) to the nearer side from a spot vertically above the pipe P in the pipe rotary direction and are carried by the air flow caused by the pipe rotation to move to the tip farther side while being deposited by the particle's own weight gravity. As a result, the approach time and the approach distance of the coating material particles with the outside surface of the pipe are prolonged to be easily deposited and to improve the coating efficiency. Further, air (b) is blown from a position farther than the spray position of the coating material (a) to the outside surface of the pipe in the rotating direction. Then air flow caused by the rotation of the pipe is suppressed by the air (b) to block the flow of the coating material particles (a) carried by the air flow. As a result, the approach time of the coating material particles (a) with the outside surface of the pipe is prolonged to be easily deposited and to improve the coating efficiency. COPYRIGHT: (C)2003,JPO