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    • 3. 发明专利
    • Steel plate concrete structure
    • 钢板混凝土结构
    • JP2006188920A
    • 2006-07-20
    • JP2005002834
    • 2005-01-07
    • Taisei Corp大成建設株式会社
    • TAKEZAKI SHINICHINARIHARA HIROYUKIMICHIKOSHI SHINTAROUHOSOZAWA OSAMUHAYABE YASUHIROWATANABE YUICHI
    • E04B2/86
    • PROBLEM TO BE SOLVED: To provide an economical steel plate concrete structure capable of being used in a general building.
      SOLUTION: The steel plate concrete structure comprises a first steel plate 1 having a plurality of first shear connectors 11, 11 secured thereon, a second steel plate 2 opposed to the first steel plate 1 with the shear connectors 11 disposed between the two plates and a concrete 3 cast between the first steel plate 1 and the second steel plate 2. The thickness t2 of the second steel plate 2 is smaller than the thickness t1 of the first steel plate 2. The first shear connectors 11 and a plurality of second shear connectors 21, 21 lower in height than the first shear connectors are secured to the second steel plate 2.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供能够用于一般建筑物的经济的钢板混凝土结构。 钢板混凝土结构包括:第一钢板1,其具有固定在其上的多个第一剪切连接件11,11;与第一钢板1相对的第二钢板2,其中剪切连接器11设置在两者之间 板和在第一钢板1和第二钢板2之间铸造的混凝土3.第二钢板2的厚度t2小于第一钢板2的厚度t1。第一剪切连接器11和多个 第二剪切连接器21,21的高度低于第一剪切连接器固定到第二钢板2.版权所有(C)2006,JPO&NCIPI
    • 4. 发明专利
    • Method of designing composite beam
    • JP2004278080A
    • 2004-10-07
    • JP2003069417
    • 2003-03-14
    • Taisei Corp大成建設株式会社
    • NISHIGAKI TAROMICHIKOSHI SHINTAROU
    • E04B1/94E04B1/00E04B1/30E04B5/32
    • PROBLEM TO BE SOLVED: To provide a method of designing a composite beam optimizing the amount of steel to reduce the weight of the composite beam while securing structural stability in case of a fire of the composite beam even when omitting or reducing fire resistive covering for a steel beam.
      SOLUTION: The method of designing the composite beam has a first step for setting items of each member constituting the composite beam; a second step for obtaining the temperature of each member in case of the fire by analysis; a third step for leading out the shearing strength of a stud in case of the fire using the analyzed result of the second step; a fourth step for determining the integrity of a concrete slab and the steel beam by comparing the shearing strength of the stud led out in the third step, with steel stregnth in case of the fire, to lead out ultimate flexural strength at the high temperature of the composite beam according to the determined result; and a fifth step for verifying structural stability in case of the fire of the composite beam using the ultimate flexural strength at the high temperature led out in the fourth step.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 6. 发明专利
    • Fire-resistance design method for prestressed member
    • 预制会员的防火设计方法
    • JP2008088628A
    • 2008-04-17
    • JP2006266932
    • 2006-09-29
    • Taisei Corp大成建設株式会社
    • BABA SHIGEAKIMICHIKOSHI SHINTAROU
    • E04B1/22E04B1/94
    • PROBLEM TO BE SOLVED: To provide a fire-resistance design method for a prestressed member which enables the strength of the prestressed member at a high temperature to be rationally evaluated only by an analysis without referring to cross-sectional specifications of the member, and without performing an experiment etc.
      SOLUTION: The high-temperature flexural strength Mu(t) of the prestressed member is estimated by an expression: Mu(t)=Σκ×ati×σyi(t)×di. In the expression, σyi(t) represents the yield strength of each prestressed wire rod which is obtained based on the temperature history of the prestressed wire rod after fire breaking determined by a heat transfer analysis of the cross section of the prestressed member, and the yield strength of the prestressed wire rod against the temperature; ati represents each cross-sectional area; di represents a distance from the compressed edge of the prestressed member to each of the prestressed wire rods; and κ represents a flexural strength coefficient. Subsequently, a retained fire-resistive period is estimated by putting the magnitude of the bending moment obtained based on a dynamic boundary condition in contrast with the high-temperature flexural strength, and the cross-sectional shape etc. of the prestressed member are set so that the retained fire-resistive period can become longer.
      COPYRIGHT: (C)2008,JPO&INPIT
    • 要解决的问题:为了提供一种预应力构件的耐火设计方法,其能够仅通过分析来合理地评估预应力构件在高温下的强度,而不参考构件的横截面规格 ,并且不进行实验等。解决方案:预应力构件的高温弯曲强度Mu(t)通过表达式估计:Mu(t)=Σκ×ati×σyi(t)×di。 在表达式中,σyi(t)表示根据预应力构件的横截面的热传导分析确定的基于预应力线材的耐火断裂的温度历史获得的每个预应力线材的屈服强度,以及 预应力钢丝杆的屈服强度抵抗温度; ati表示每个横截面积; di表示从预应力构件的压缩边缘到每个预应力线材的距离; κ表示弯曲强度系数。 随后,通过将基于动态边界条件获得的弯矩的大小与高温弯曲强度相对比来估计保留的耐火时间,并且将预应力构件的横截面形状等设置为 保留的耐火期可能变长。 版权所有(C)2008,JPO&INPIT
    • 7. 发明专利
    • Joint section structure of wall
    • 墙壁接合部分结构
    • JP2007070834A
    • 2007-03-22
    • JP2005256904
    • 2005-09-05
    • Kajima CorpTaisei Corp大成建設株式会社鹿島建設株式会社
    • BABA SHIGEAKIMICHIKOSHI SHINTAROUOUCHI TOMIOMIYAMOTO KEIICHIARITA SHIE
    • E04B1/94
    • PROBLEM TO BE SOLVED: To provide a joint section structure of a wall having a long time fire-proof performance in the joint section of a wall panel such as an ALC and PCa.
      SOLUTION: This fire-proofing joint section structure of the wall for joining, to each other, the end faces of the wall panel in which groove parts are formed in the end faces thereof. The joint section structure comprises a hollow part 10 formed by facing each other the groove parts of the wall panel and a joint filler formed of a ceramic fiber blanket 7 with fireproof performance filled in the hollow part and a fireproof adhesive agent. The joint filler is formed by bringing a plurality of members into contact with each other. The contact parts of these members are brought into contact with a lateral cross section 11 in the diagonal direction relative to the axial direction of the joint section.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供在诸如ALC和PCa的墙板的接合部分中具有长时间防火性能的壁的接合部分结构。 解决方案:该壁的防火接合部分结构,用于彼此接合在其端面中形成有沟槽部分的壁板的端面。 接合部结构包括由壁板的槽部彼此相对地形成的中空部分10和由填充在中空部分中的具有防火性能的陶瓷纤维毯7形成的接合填料和防火粘合剂。 通过使多个构件彼此接触而形成接合填料。 这些构件的接触部分相对于接头部分的轴向在相对于横向方向的横向横截面11上接触。 版权所有(C)2007,JPO&INPIT