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    • 2. 发明专利
    • Method and equipment for estimating geology in front of facing of tunnel
    • 隧道前期地质学评估方法与设备
    • JP2003020897A
    • 2003-01-24
    • JP2001207387
    • 2001-07-09
    • Kajima Corp鹿島建設株式会社
    • SHIRASAGI TAKUYAMAMOTO TAKUJIAOKI KENJIINAO MICHIHIRO
    • E21D9/10G01N33/24
    • PROBLEM TO BE SOLVED: To provide a method for estimating geology in front of a facing of a tunnel which enables accurate estimation of the state of the geology in front of the facing.
      SOLUTION: A fracture energy factor is calculated from the data obtained by drilling a drill bed-inspection boring hole 9 in front 13 of the facing, while a bedrock strength and an excavation volume-ratio energy are calculated from the TBM machine data obtained by excavating a bedrock 1 by TBM 3. The fracture energy factor is converted into the bedrock strength and the distribution of the bedrock strength is modeled by a function containing information on a position, such as a mean value function or a covariance function. Based on a model thus obtained, the bedrock strength at an arbitrary point is estimated by using kriging.
      COPYRIGHT: (C)2003,JPO
    • 要解决的问题:提供一种能够准确估计面部前方的地质状态的隧道面前的地质学方法。 解决方案:根据从钻孔头孔检查钻孔9在面板前面13获得的数据计算断裂能量因子,同时基于挖掘的TBM机床数据计算基岩强度和挖掘体积比能量 由TBM 3的基岩1。将断裂能量因子转换为基岩强度,并且通过包含位置信息(诸如平均值函数或协方差函数)的函数来建模基岩强度的分布。 基于这样获得的模型,通过使用克里金估计任意点的基岩强度。
    • 3. 发明专利
    • OPTIMUM BLASTING DESIGN SYSTEM
    • JPH1181855A
    • 1999-03-26
    • JP23808697
    • 1997-09-03
    • KAJIMA CORP
    • AOKI KENJIYAMAMOTO TAKUJIMUTA JUNMIYAJIMA YASUYUKI
    • E21D9/00
    • PROBLEM TO BE SOLVED: To provide the optimum blasting pattern depending on a situation of the natural ground by correcting the blasting pattern retrieved from blasting pattern data base by a computer based on the data at the time of hole drilling. SOLUTION: An optimum blasting design system is formed by a computer 3 provided with a hole drilling layer detection system 7, a face video image processing system 9, and a blasting design program 11 and blasting pattern data base 5 which stores the optimum blasting pattern which corresponds to a classification of different natural grounds. First, the natural grounds are classified, and the blasting pattern data base 5 is retrieved to set a blasting pattern. Next, a situation of hole drilling is grasped using quantitative geological data 13 obtained from the hole drilling layer detection system 7 and geological data 15 of a rock bed obtained from the face video image processing system 9 to correct by the blasting design program 11 so as to obtain a blasting pattern 17. Blasting is done based on the blasting pattern 17 to confirm the acceptability of the blasting pattern 17 by confirming the effect for breaking rocks into pieces. If the results are favorable, the blasting pattern 17 is recorded in the blasting pattern data base 5.
    • 4. 发明专利
    • Permeability test evaluation system and permeability test evaluation method
    • 渗透性测试评估系统和渗透性测试评估方法
    • JP2006037387A
    • 2006-02-09
    • JP2004215642
    • 2004-07-23
    • Kajima Corp鹿島建設株式会社
    • AOKI KENJIMITO YOSHITADAYAMAMOTO MASAYAYAMAMOTO TAKUJIINAO MICHIHIRO
    • E02D1/02G01V9/00G01V9/02
    • PROBLEM TO BE SOLVED: To provide a permeability test evaluation system and a permeability test evaluation method capable of estimating a hydrogeological structure with high accuracy from the result of a cross hole permeability test executed in a homogenous base rock having complicated bleeding channels independently from an initial mode. SOLUTION: After the permeability test of a ground 39 is performed to acquire a head diffusion coefficient 63 between observation points, the constellation 41 of observation points A, B to J is determined by using the inverse of the head diffusion coefficient 63 as similarity in a multi-dimensional scaling method. A point group 45 is arranged at uniform density within a polygon 44 having the constellation 41 of the observation points as an apex and a center of gravity matched to an origin, in which the square of the difference between the constellation 41 of the observation points and a position 46 in a real space of the observation points is minimized. Geometric reconstitution is performed by use of inverse distance interpolation so that the constellation 41 of the observation points is moved to the position 46 in the real space of the observation points, and the density of the point group 45 is measured for the real space, whereby a hydrogeological structure model is formed. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种渗透性测试评估系统和渗透性测试评估方法,其能够从具有独立的复杂出血通道的均质基础岩石中进行的透孔渗透性测试的结果高精度地估计水文地质结构 从初始模式。 解决方案:在进行地面39的渗透率测试以获取观测点之间的头部扩散系数63之后,观测点A,B至J的星座41通过使用头部扩散系数63的倒数作为 相似度在多维缩放方法。 点阵组45以具有观察点的星座41作为顶点的多边形44以及与原点相匹配的重心配置在均匀的密度上,其中观测点的星座41与 在观察点的实际空间中的位置46被最小化。 通过使用逆距离插值来进行几何重构,使得观察点的星座41移动到观察点的实际空间中的位置46,并且对于实际空间测量点组45的密度,由此 形成水文地质结构模型。 版权所有(C)2006,JPO&NCIPI
    • 5. 发明专利
    • DESIGN EVALUATING METHOD FOR REINFORCEMENT MATERIAL
    • JPH11256561A
    • 1999-09-21
    • JP5923698
    • 1998-03-11
    • KAJIMA CORP
    • AOKI KENJIYAMAMOTO TAKUJIINAO MICHIHIROMIYAJIMA YASUYUKI
    • E02D1/04E21D9/00G01N33/24
    • PROBLEM TO BE SOLVED: To change the design of a reinforcement material by drilling the natural ground to be excavated, calculating the breaking energy coefficient of the rock bed to which a reinforcement material is applied, and grasping the three-dimensional geological status of the peripheral natural ground and estimated unexcavated portion to determine the acceptability of design of the reinforcement material. SOLUTION: The peripheral natural ground of an underground cavity is drilled by a hydraulic percussion drill 1, and every kind of data is held in a memory card 17 and analyzed by a computer 19. At that time, the breaking energy coefficient is obtained to grasp the geological status of the natural ground, and the design is changed at need according to the acceptability of design. Secondly, the three-dimensional distribution map of the breaking energy coefficient is created to grasp the three-dimensional geological status of the peripheral natural ground, and if necessary, the design is changed. PS anchor is reinforced and the three-dimensional geological status of the peripheral natural ground of an unexcavated portion is estimated to change the design at need. Thus, especially the position of a fracture zone is grasped to make a design change for reinforcement or the like. Thus, safe and reasonable design and execution of works for the underground cavity can be performed.
    • 8. 发明专利
    • VELOCITY LOGGING METHOD AND DEVICE
    • JPH11182171A
    • 1999-07-06
    • JP35691797
    • 1997-12-25
    • KAJIMA CORP
    • INAO MICHIHIROAOKI KENJIYAMAMOTO TAKUJITOIDA KATSU
    • E21D9/00E21D9/06G01N33/24G01V1/00
    • PROBLEM TO BE SOLVED: To find the elastic wave speed distribution without hindering a process by a velocity logging method, and to anticipate a geological situation in front of a working face by using a horizontal boring hole excavated from the working face by a drill jumbo. SOLUTION: Plural vibration receivers 5 to receive vibration of bedrock are arranged at prescribed intervals in a tip part 3a of an excavated boring hole 3, and this cable 6 is connected to a personal computer 7 being a measuring means through a vinyl chloride pipe 4 constituted by being connected by a connector 4a, and a working face or (2) is connected to the personal computer 7 by a trigger cable 8. Work to record a vibration waveform by similarly generating vibration by pulling out the vinyl chloride pipe by the prescribed length after recording a vibration waveform by generating vibration by waiting for a trigger to generate vibration, is repeated until the vibration receivers 5 come to an inlet of the hole 3. Reading of recording, preparation of a travel time curve and output of an analytical result exist as an analytical menu, and when reading of the recording is selected, a lineup of a measured waveform is displayed/automatically read.
    • 9. 发明专利
    • TUNNEL FACING FRONT SURVEYING METHOD
    • JPH11174046A
    • 1999-07-02
    • JP34478597
    • 1997-12-15
    • KAJIMA CORP
    • AOKI KENJIINAO MICHIHIROTOIDA KATSUYAMAMOTO TAKUJIMIYAJIMA YASUYUKI
    • E21D9/00G01N33/24
    • PROBLEM TO BE SOLVED: To properly predict geological condition on the front side in a tunnel and the like to be dug for preparing a countermeasure against a defective geologic part part previously so as to safely perform construction economically by means of a combination of four processes such as TSP, drilling logging, speed logging, and facing image processing. SOLUTION: In advance examination of a tunnel to be dug by means of a facing front survey general system, elastic wave velocity of the natural ground is measured along a track and approximate position and dimension of a fracture zone are estimated. From this information, a survey requiring section in front of the facing is determined, and firstly, existence of a surface of discontinuity to a predetermined distance in front of the facing is predicted according to an elastic wave research reflection method. When the facing approaches the surface of discontinuity, drilling logging is carried out while using a hole bored by a drill jumbo, and a fracture energy coefficient is found. Then, speed logging is carried out in the hole, in which drilling logging is carried out, and a geological condition is predicted on the basis of the elastic wave velocity. If a correlative relationship between the elastic wave velocity and the fracture energy coefficient is confirmed, from then on, a geological condition is predicted only by drilling logging.