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    • 1. 发明专利
    • Hydraulic blast furnace slag composition and concrete cured body
    • 液压烤炉渣组合物和混凝土固化体
    • JP2014125370A
    • 2014-07-07
    • JP2012282339
    • 2012-12-26
    • Takenaka Komuten Co Ltd株式会社竹中工務店Kajima Corp鹿島建設株式会社Takemoto Oil & Fat Co Ltd竹本油脂株式会社
    • YONEZAWA TOSHIOMITSUI TATEOINOUE KAZUMASAKOJIMA MASAOTSUJI DAIJIROMATSUSHITA TETSUROKANDA TETSUSHISAKATA NOBORUYODA KAZUHISAHASHIMOTO MANABUKINOSHITA MITSUOTAMAKI SHINJISAITO KAZUHIDEKURODA MOE
    • C04B28/08C04B14/28C04B24/38
    • PROBLEM TO BE SOLVED: To provide a hydraulic blast furnace slag composition and a concrete cured body obtained by curing the same that simultaneously and sufficiently solve the plurality of problems that a concrete composition prepared by using blast furnace slag highly containing binding material produces a concrete cured body of low compressive strength, and a hydraulic blast furnace slag composition produces a concrete cured body of lowered compressive strength when undergoes thermal history of temperature rising due to heat evolution during curing by hydration reaction, and also a hydraulic blast furnace slag composition has high S-value.SOLUTION: A hydraulic blast furnace slag composition containing the following admixture by an amount of 0.01 to 0.50 pts.mass per 100 pts.mass of the following binding material. Binding material: containing blast furnace slag fine powder having a fineness of 3000 to 8000 cm/g by an amount of 40 to 80 mass%, Portland cement by an amount of 15 to 55 mass%, and sulfate by an amount of 1.0 to 5.0 mass% in terms of SO(the sum of blast furnace slag fine powder, Portland cement and sulfate is 100 mass%). Admixture: composed of two components of the following A component and the following B component, and containing A component by an amount of 50 to 99 mass% and B component by an amount of 1 to 50 mass% (total 100 mass%). A component: a water soluble dextrin compound having a weight average molecular weight of 1000 to 20000 and a solubility into water at 21°C of 90% or more. B component: a water soluble dextrin compound having a weight average molecular weight of 20001 to 50000 and a solubility into water at 21°C of 90% or more.
    • 要解决的问题:提供一种液压高炉矿渣组合物和通过固化而获得的混凝土固化体,其同时充分地解决了通过使用高含有粘结材料的高炉渣制备的混凝土组合物产生混凝土固化的多个问题 液压高炉渣组合物在通过水化反应固化期间由于放热而经历由于升温引起的温度升高的热历史时产生具有降低的抗压强度的混凝土固化体,并且液压高炉渣组合物具有高S 价值。解决方案:一种液压高炉矿渣组合物,其含有以下混合物,其量为0.01至0.50磅/微升/ 100磅的以下粘结材料。 结合材料:含有40〜80质量%的细度为3000〜8000cm / g的高炉矿渣微粉,15〜55质量%的硅酸盐水泥,1.0〜5.0的硫酸盐 质量%以SO(高炉矿渣粉末,波特兰水泥和硫酸盐的总和为100质量%)。 外加剂:由以下A成分和以下B成分的两种成分组成,A成分为50〜99质量%,B成分为1〜50质量%(总计100质量%)。 A成分:重均分子量为1000〜20000的水溶性糊精化合物和在21℃下的水溶性为90%以上。 B成分:重均分子量为20001〜50000的水溶性糊精化合物和在21℃下在水中的溶解度为90%以上。
    • 7. 发明专利
    • Total inspection method for fresh concrete and its device
    • 新鲜混凝土及其装置的总检验方法
    • JP2005249630A
    • 2005-09-15
    • JP2004061741
    • 2004-03-05
    • Takenaka Komuten Co Ltd株式会社竹中工務店
    • KOJIMA MASAOMITSUI TATEOINOUE KAZUMASASEKO SHIGEKITSUJI DAIJIROMIYOSHI TETSUSHIYONEZAWA TOSHIOKITANI SOICHI
    • E04G21/02B28C7/16G01N11/00G01N11/04G01N33/38
    • PROBLEM TO BE SOLVED: To provide a total inspection method for fresh concrete and its device capable of easily determining whether total quantity of concrete continuously supplied is within a range of required slump or not, allowing concrete which is too large or too small for a specific slump due to quality variation and the like to be excluded and leading to avoid quality problems including a rock pocket, crazing and the like due to placing on inappropriate concrete.
      SOLUTION: The fresh concrete 4 input from an input part 6 is made to flow out from a flow-out port 10 provided with a horizontal bound-out plate 9 from a lower collar in an opposing lower part of the input part via a controlling means for controlling force at the time of input. An opening area of the flow-out port 10 is made to be a setting value specified beforehand so that the concrete 4 of a specific slump passes through the flow-out port and flow-out quantity of the concrete 4 less than the specific slump is insufficient for input quantity.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:为了提供新鲜混凝土及其装置的总体检查方法,其能够容易地确定连续供应的混凝土的总量是否在所需的坍落度的范围内,允许太大或太小的混凝土 由于质量差异等而导致的特定坍落度被排除,并且由于放置在不适当的混凝土上而导致包括岩心袋,龟裂等的质量问题。 解决方案:从输入部分6输入的新鲜混凝土4从设置有水平边界板9的流出口10从输入部件的相对的下部的下部轴环经过 用于控制输入时的力的控制装置。 流出口10的开口面积为预先规定的设定值,使得特定坍落度的混凝土4通过流出口,混凝土4的流出量小于特定坍落度 输入量不足 版权所有(C)2005,JPO&NCIPI
    • 9. 发明专利
    • System and method for measuring salinity concentration of concrete body
    • 用于测量混凝土体浓度浓度的系统和方法
    • JP2012184948A
    • 2012-09-27
    • JP2011046513
    • 2011-03-03
    • Takenaka Komuten Co Ltd株式会社竹中工務店
    • YAMAZAKI KEITAMITSUI TATEOTSUJI DAIJIRO
    • G01N27/02G01N27/22
    • PROBLEM TO BE SOLVED: To provide a system and method for measuring the salinity concentration of a concrete body, which allow the salinity concentration of the concrete body to be easily and simply measured in comparison with conventional ones and enable real-time measurement on site.SOLUTION: A salinity concentration measurement system 1 for measuring the salinity concentration of a concrete body comprises: a characteristic information DB 8a which stores information on the characteristics of the concrete body, including a first characteristic information composed of impedance, frequency corresponding to the impedance, water content, and salinity concentration which are linked to each other; a pair of electrodes 2a and 2b which are arranged spaced apart from each other on a surface of the concrete body; an impedance meter 4 for measuring the impedance between the pair of electrodes 2a and 2b through the concrete body with AC current flowing; and an arithmetic unit 5 which specifies the salinity concentration of the concrete body based on the measured impedance with reference to the first characteristic information stored in the characteristic information DB 8a.
    • 要解决的问题:提供一种用于测量混凝土体的盐度浓度的系统和方法,其允许混合物体的盐度浓度与常规体系相比容易且简单地测量,并且能够实时测量 现场。 解决方案:用于测量混凝土体盐度浓度的盐度浓度测量系统1包括:特征信息DB 8a,其存储关于混凝土体特性的信息,包括由阻抗构成的第一特征信息,对应于 相互连接的阻抗,含水量和盐度浓度; 一对电极2a和2b,其在混凝土体的表面上彼此间隔开设置; 阻抗计4,用于通过交流电流测量通过混凝土体的一对电极2a和2b之间的阻抗; 以及算术单元5,其参考存储在特征信息DB 8a中的第一特征信息,基于测量的阻抗来指定混凝土体的盐度浓度。 版权所有(C)2012,JPO&INPIT
    • 10. 发明专利
    • Concrete and method for producing concrete
    • 混凝土和混凝土生产方法
    • JP2012121764A
    • 2012-06-28
    • JP2010274083
    • 2010-12-08
    • Takenaka Komuten Co Ltd株式会社竹中工務店
    • SAITO TOSHIOMITSUI TATEOYONEZAWA TOSHIOIKEO YOSAKUHASUMI TAKASHIYANAGIBASHI KUNIOTSUJI DAIJIROWACHI MASAHIRO
    • C04B28/08B07B7/083B09B1/00B09B5/00C04B7/153C04B7/19C04B18/16
    • Y02P40/143Y02W30/95
    • PROBLEM TO BE SOLVED: To provide a method for reproducing concrete raw materials from a dismantled concrete mass, and concrete produced by the method.SOLUTION: In a first separation step 100, the dismantled concrete mass 98 crushed to a diameter of 40 mm or less is pulverized to separate and recover rough aggregates 16 with a particle size of 5 mm or more and fine particles 14 with a particle size below 5 mm, whereby recycling of the rough aggregates 16 can be performed. In a second separation step 102, the fine particles 14 are separated into fine aggregates 20 with a particle size exceeding 0.6 mm and finely-divided powder 18 with a particle size of 0.6 mm or less, and the both are recovered, whereby recycling of the fine aggregates 20 can be performed. In a third separation step 104, the finely-divided powder 18 is separated into fine powder 24 and aggregate powder 26, and the both are recovered, whereby recycling of the finely-divided powder 24 can be performed. In a cement producing step 106, cement 84 is produced by adding blast furnace slag 80 and plaster 82 to the fine powder 24. In a concrete producing step 108, concrete 88 is produced by mixing water 110 to the cement 84, the rough aggregates 16 and the fine aggregates 20.
    • 要解决的问题:提供一种从拆解的混凝土块中再现混凝土原料的方法,以及通过该方法制备的混凝土。 解决方案:在第一分离步骤100中,粉碎至直径为40mm或更小的被拆除的混凝土块98被粉碎以分离并回收粒度为5mm以上的粗粒料16和微粒14与 颗粒尺寸低于5mm,从而可以进行粗骨料16的再循环。 在第二分离步骤102中,将细颗粒14分离为粒径超过0.6mm的细小聚集体20和粒径为0.6mm以下的细粉18,回收二者 可以执行细集料20。 在第三分离步骤104中,将细碎粉末18分离为细粉末24和聚集粉末26,并回收二者,由此可以进行细分粉末24的再循环。 在水泥生产步骤106中,通过将高炉渣80和石膏82加入到细粉末24中来生产水泥84.在混凝土生产步骤108中,通过将水110与水泥84混合,粗骨料16 和精细骨料20.版权所有(C)2012,JPO&INPIT