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    • 5. 发明专利
    • High fluidity fiber-reinforced mortar or concrete kneaded material
    • 高流动性纤维增强纤维或混凝土材料
    • JP2007126317A
    • 2007-05-24
    • JP2005319200
    • 2005-11-02
    • Denki Kagaku Kogyo KkKajima Corp電気化学工業株式会社鹿島建設株式会社
    • MATSUBARA KOMEIHISHIKI TAKEYOSHIONO TOSHIOICHINOMIYA TOSHIMICHISAKAI GOROYANAI SHUJIHONDA TOMOAKISOGABE NAOKIASHIDA KIMINOBUAIZAWA KAZUHIRO
    • C04B28/02C04B14/04C04B14/48C04B16/06C04B20/00
    • C04B28/02C04B14/02C04B20/0052C04B20/0076
    • PROBLEM TO BE SOLVED: To provide a kneaded material which is one of self-fluidity fiber-reinforced cement-based materials and in which the dispersibility of fibers can be stably and sufficiently maintained in the period from kneading to the completion of placing.
      SOLUTION: In high fluidity fiber-reinforced mortar or concrete kneaded material, the maximum particle diameter of an aggregate is controlled as follows; (1) short fibers having an average fiber length of 5-25 mm and a density of 7-10 g/cm
      3 are mixed and dispersed, and the maximum particle diameter of the aggregate is 0.3-2.5 mm, (2) short fibers having an average fiber length of >25 and ≤70 mm and a density of 7-10 g/cm
      3 are mixed and dispersed, and the maximum particle diameter of the aggregate is 1.2-20 mm, (3) short fibers having an average fiber length of 5-25 mm and a density of 0.9-2.6 g/cm
      3 are mixed and dispersed, and the maximum particle diameter of the aggregate is 0.15-2.5 mm, or (4) short fibers having an average fiber length of >25 and ≤70 mm and a density of 0.9-2.6 g/cm
      3 are mixed and dispersed, and the maximum particle diameter of the aggregate is 0.6-20 mm.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供作为自流动性纤维增强水泥基材料之一的捏合材料,并且其中纤维的分散性可以在从捏合到完成放置的期间稳定和充分地保持 。 解决方案:在高流动性纤维增强砂浆或混凝土搅拌材料中,骨料的最大粒径如下控制: (1)平均纤维长度为5〜25mm,密度为7〜10g / cm 3的短纤维混合分散,骨料的最大粒径为0.3〜2.5 mm,(2)将平均纤维长度> 25和≤70mm,密度为7〜10g / cm 3的短纤维混合分散,并将聚集体的最大粒径 为1.2-20mm,(3)平均纤维长度为5〜25mm,密度为0.9〜2.6g / cm 3的短纤维混合分散,最大粒径为 聚集体为0.15-2.5mm,或(4)平均纤维长度> 25和≤70mm,密度为0.9-2.6g / cm 3的短纤维混合并分散,并且 骨料的最大粒径为0.6〜20mm。 版权所有(C)2007,JPO&INPIT
    • 7. 发明专利
    • Cast-in-place concrete pile and construction method for the same
    • 混凝土桩和其构造方法
    • JP2014015786A
    • 2014-01-30
    • JP2012154673
    • 2012-07-10
    • Kajima Corp鹿島建設株式会社
    • SAITO KIMIOMATSUKI SATOSHIYANAI SHUJIICHINOMIYA TOSHIMICHI
    • E02D5/34E02D5/38
    • PROBLEM TO BE SOLVED: To provide a cast-in-place concrete pile and a construction method for the same capable of: reducing an amount of excavated soil, to be carried out of a site, by using pre-packed concrete; and preventing decline in bending capacity and shear capacity of the cast-in-place concrete pile.SOLUTION: In constructing a cast-in-place concrete pile 1, a hole section H is excavated in the ground and axial direction reinforcement 31 as well as lateral ties 32 are arranged along an inner periphery of the hole section H. Then, a normal reinforced concrete section 3 is constructed by placing normal concrete around the axial reinforcement 31 and the lateral ties 32. In addition, a pre-packed concrete section 2 is constructed by: putting course aggregate, including soil and stone collected from soil generated at a site, inside the normal reinforced concrete section 3; and filling mortar inside the same.
    • 要解决的问题:提供一种现浇混凝土桩及其施工方法,可以通过使用预先包装的混凝土来减少开采土地的数量; 并防止现浇混凝土桩的弯曲能力和剪切能力下降。解决方案:在现浇混凝土桩1的构造中,在地面和轴向加固31中挖出孔H, 横向接头32沿着孔部H的内周布置。然后,通常将钢筋混凝土部分3放置在轴向加强件31和侧向连接部32周围。另外,预先包装的混凝土部分2 由正常钢筋混凝土部分3内,将从现场生成的土壤中收集的土壤和石料放入路线骨料中; 并在里面填充砂浆。
    • 9. 发明专利
    • Underground structure
    • 地下结构
    • JP2013199808A
    • 2013-10-03
    • JP2012069857
    • 2012-03-26
    • Kajima Corp鹿島建設株式会社
    • KONO TETSUYAYAMANOBE SHINICHIICHINOMIYA TOSHIMICHISIVALEEPUNTH CHUNYAKOM
    • E02D29/045E04C5/18E21D13/00
    • PROBLEM TO BE SOLVED: To provide an underground structure which has high axial strength and aseismatic performance, can demonstrate high durability while special constraints for upper and lower beams are not required, and also can be manufactured at lower cost.SOLUTION: A center pillar H in an underground structure M includes a reinforced-concrete center pillar body 1. Bearing pressure plates 2 and 3 fixed to a bearing pressure concrete B are disposed at both ends of the center pillar body 1, so that the center pillar body 1 is supported by the bearing pressure plates 2 and 3. A plurality of reinforcements 11 are arranged in the center pillar body 1 along the longitudinal direction. A hole part 23, a high intensity spiral reinforcement 24, and a high intensity concrete 31, which are formed in a bearing pressure plate body 21 as a binding structure to enhance the horizontal binding force of the reinforcements 11, are provided at the ends of the plurality of reinforcements 11.
    • 要解决的问题:为了提供具有高轴向强度和抗震性能的地下结构,可以表现出高的耐久性,而不需要上梁和下梁的特殊限制,并且还可以以较低的成本制造。解决方案:中心柱H 地下结构M包括钢筋混凝土中心柱体1.固定在轴承压力混凝土B上的轴承压板2和3设置在中柱体1的两端,使得中柱体1由 轴承压板2和3.多个加强件11沿着纵向布置在中心柱体1中。 在作为装订结构的轴承压板体21中形成的用于增强加强件11的水平结合力的孔部23,高强度螺旋加强件24和高强度混凝土31设置在 多个增强件11。
    • 10. 发明专利
    • Underwater foundation construction method and outer shell section structure
    • 水下基础施工方法和外壳结构
    • JP2011236675A
    • 2011-11-24
    • JP2010110104
    • 2010-05-12
    • Kajima Corp鹿島建設株式会社
    • SOGABE NAOKIYAMANOBE SHINICHIFURUICHI KOSUKEICHINOMIYA TOSHIMICHI
    • E02D27/18E02D27/52
    • PROBLEM TO BE SOLVED: To provide a construction method of an underwater foundation of which center-of-gravity position can be adjusted so that it becomes a stable floating body while being towed, without unnecessarily increasing the weight of a sidewall and a floor slab of the underwater foundation, and an outer shell section structure.SOLUTION: A plurality of outer shell members 7 are continuously arranged along a top face 25 of a side wall 5 provided around the bottom slab 3 of a caisson 1, and the outer shell members 7 and the side wall 5 are fixed by a PC steel 11 to install an outer shell section structure 14. The caisson 1 with the outer shell section structure 14 installed is moved to water surface and arranged by putting a weight body 39 such as seawater, sand or ballast into the inside 37 thereof, to adjust the center-of-gravity position of the caisson 1. Thereafter, the caisson 1 is towed up to a position above an installation planned position and filling sand 45 is put into the inside thereof to immerge the caisson 1 at the installation planned position and place upper floor concrete 47. Thereafter, water is poured into the inside 49 of the caisson 1 and tensioning force of the PC steel 11 is released to remove outer shell members 7 from the top face 25 of the side wall 5, and then the PC steel 11 projecting from the side wall 5 is cut off.
    • 要解决的问题:提供一种可以调节重心位置的水下基础的施工方法,使其在被拖曳的同时成为稳定的浮体,而不必增加侧壁的重量和 水下基础的地板和外壳部分结构。 解决方案:多个外壳构件7沿着设置在沉箱1的底板3周围的侧壁5的顶面25连续地布置,外壳构件7和侧壁5由 安装外壳部分结构14的PC钢11.将安装有外壳部分结构14的沉箱1移动到水面并通过将诸如海水,沙子或镇流器的重量体39放入其内部37中而布置, 调整沉箱1的重心位置。此后,将沉箱1拖到高于安装计划位置的位置,并将填充砂45放入其内部以将沉箱1浸入安装计划位置 并放置上层混凝土47.此后,将水倒入沉箱1的内部49中,释放PC钢11的张力,从侧壁5的顶面25除去外壳构件7,然后将 PC钢11项目 从侧壁5的切割被切断。 版权所有(C)2012,JPO&INPIT