会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Device for petrophysical measurement and implementation method
    • 岩石物理测量与实施方法
    • US5610524A
    • 1997-03-11
    • US526229
    • 1995-09-11
    • Daniel LongeronMarc Fleury
    • Daniel LongeronMarc Fleury
    • G01N15/08G01N27/04G01N33/24G01V3/02
    • G01N27/041G01N15/082G01N33/241
    • The device includes a cell for a sample, delimited lengthwise by two end pieces (7, 8) and laterally by a deformable sheath (17). The end pieces are traversed by channels (14) which place their grooved inside faces in communication respectively with two sources (14, 15) at an adjustable pressure delivering respectively a first and a second fluid. Between the inside faces of the end pieces and the sample, two semipermeable membranes (12, 13) are disposed, which are permeable respectively to the first and to the second fluid. Electrodes (18, 19) are placed inside sheath (17) in contact with the sample and connected to a system (24) for measuring the electrical conductivity of the sample. The cell is placed in a body (1) associated with pressure means (28) for applying a confinement pressure to sheath (17) and membranes (12, 13). The device is designed to operate at relatively high temperatures.
    • 该装置包括用于样品的细胞,纵向由两个端部片(7,8)限定,并且由可变形的护套(17)侧向限定。 端部件被通道(14)穿过,通道(14)将沟槽的内表面分别与两个源(14,15)连通,分别以可调节的压力输送第一和第二流体。 在端片和样品的内表面之间设置有分别可渗透到第一和第二流体的两个半透膜(12,13)。 将电极(18,19)放置在与样品接触的护套(17)内,并连接到用于测量样品的电导率的系统(24)。 将电池放置在与压力装置(28)相关联的主体(1)中,用于向护套(17)和膜(12,13)施加约束压力。 该器件设计为在较高温度下工作。
    • 2. 发明授权
    • Device for measuring physical characteristics of a porous sample
    • 用于测量多孔样品的物理特性的装置
    • US08042382B1
    • 2011-10-25
    • US09083180
    • 1998-05-22
    • Marc FleuryGabriel Ringot
    • Marc FleuryGabriel Ringot
    • G01N15/08
    • G01N15/0806G01N15/082G01N27/226G01N33/24
    • Device for measuring physical characteristics of a porous sample by performing successive drainage and imbibition phases in the presence of a first electricity-conducting fluid and of a second fluid of lower density than the first fluid, by means of a centrifuge whose speed is successively increasing and decreasing. The sample saturated with the first fluid is placed in a vessel (13) fastened to the end of an arm (9) driven in rotation by a motor (10) and communicating, by means of a rotating electro-hydraulic connector (17), with a stationary measuring signal control and acquisition unit (E) including hydraulic fluid displacement means and an acquisition device connected to a capacitive sonde in the vessel, which delivers signals indicative of the position of the interface between the two fluids. The device can be applied for analyzing rocks taken from an underground reservoir for example.
    • 用于通过在速度连续增加的离心机中在第一导电流体和比第一流体密度低的第二流体的存在下进行连续排放和吸收阶段来测量多孔样品的物理特性的装置,以及 减少 用第一流体饱和的样品放置在紧固在由马达(10)驱动旋转的臂(9)的端部并通过旋转的电液连接器(17)连通的容器(13)中, 具有固定的测量信号控制和采集单元(E),包括液压流体位移装置和连接到容器中的电容式探空仪的采集装置,其传送指示两种流体之间的界面的位置的信号。 该装置可用于分析从地下水库获取的岩石。
    • 3. 发明授权
    • Device for separating and for measuring the volume of the various phases of a mixture of fluids
    • 用于分离和测量流体混合物的各个相的体积的装置
    • US06272906B1
    • 2001-08-14
    • US09386377
    • 1999-08-31
    • Marc FleuryGérard FernandesAurélie Samouillet
    • Marc FleuryGérard FernandesAurélie Samouillet
    • G01N2722
    • G01F23/268
    • The invention is a device for separating a mixture of fluids (conducting fluid, non-conducting fluid, gas), suited to measure the volumes of the various fluids by means of a capacitive measuring process. The invention comprises a unit (WOS) for separating a conducting liquid phase and another, non-conducting liquid phase or non-conducting gas phase that's immiscible with said first phase along an intervening interface, comprising an elongate tubular vessel (T) whose outer wall (1) is made of a conducting material and whose inner wall (2) is made of an insulating material, this vessel being arranged vertically in operation, a conducting element (3) in contact with the conducting first phase, that can be combined with a second unit (GOS) for separating a non-conducting liquid and a gas, comprising a second elongate tubular vessel (12) made of a conducting material placed above the first unit, an elongate electrode (14, 15) arranged substantially in line with the second vessel and electrically insulated therefrom a capacitance measuring unit (8) that is connected by conductors (LI-L4) to conducting element (3), to the outer wall (1) of the first vessel, to second vessel (12) and to electrode (14), and fluid supply means (7, 19). The invention may be used to monitor interfaces at high temperature and pressure, notably for petrophysical measurements for example.
    • 本发明是用于通过电容测量过程分离适合于测量各种流体的体积的流体(导电流体,非导电流体,气体)的混合物的装置。 本发明包括用于分离导电液相的单元(WOS)和另一个与所述第一相不沿着中间界面混溶的非导电液相或非导电气相,包括细长管状容器(T),其外壁 (1)由导电材料制成,其内壁(2)由绝缘材料制成,该容器在操作中垂直布置,与导电第一相接触的导电元件(3)可与 用于分离非导电液体和气体的第二单元(GOS),包括由置于第一单元上方的导电材料制成的第二细长管状容器(12),细长电极(14,15),其基本上与 与第二容器电绝缘的电容测量单元(8),其通过导体(LI-L4)连接到导电元件(3)到第一容器的外壁(1)到第二容器(12)和 选举 (14)和流体供应装置(7,19)。 本发明可用于监测高温和高压下的界面,特别是用于例如岩石物理测量。
    • 4. 发明授权
    • Device intended for measurements on a porous sample in the presence of
fluids, using temperature-resistant semipermeable membranes
    • 用于在流体存在下对多孔样品进行测量的装置,使用耐温半透膜
    • US5979223A
    • 1999-11-09
    • US66936
    • 1998-04-28
    • Marc Fleury
    • Marc Fleury
    • G01N15/08G01N33/24
    • G01N15/0806G01N33/241
    • Device intended for measurements on a porous rock bar in the presence of fluids including a containment cell comprising an elongate body (2) closed at the opposite ends thereof by end pieces (6, 7) and sources of pressurized fluids allowing displacement under pressure, within the sample, of a first wetting fluid and of a second fluid. One or more selectively wettable rigid membranes consisting each of a relatively thin layer of a porous ceramic on a support layer made from a porous material are pressed against the ends of the sample. The membranes can for example be made by sintering of metallic grains of unequal size (the grains are much coarser for the support layer). Such membranes have good resistance to high temperatures of the order of several hundred .degree.C. Electrodes (E1) connected to a measuring device (24) are used to determine physical characteristics of the bar. The device can be used for oil reservoir engineering notably.
    • 用于在多孔岩石条上进行测量的装置,包括包含容纳细胞的流体,所述容器细胞包括细长体(2),所述细长体在其相对端通过端片(6,7)和在压力下允许位移的加压流体源封闭, 第一润湿流体和第二流体的样品。 将由多孔材料制成的支撑层上的相对薄的多孔陶瓷层组成的一个或多个可选择性润湿的刚性膜压在样品的端部上。 膜可以例如通过烧结不同大小的金属颗粒(颗粒对于支撑层来说更粗糙)来制备。 这种膜具有良好的耐几百℃的耐高温性能。连接到测量装置(24)的电极(E1)用于确定棒材的物理特性。 该装置特别可用于油藏工程。
    • 5. 发明授权
    • Method for fast measurement of the saturation and the resistivity of a porous medium
    • 用于快速测量多孔介质的饱和度和电阻率的方法
    • US07642774B2
    • 2010-01-05
    • US12204932
    • 2008-09-05
    • Marc FleuryMei Han
    • Marc FleuryMei Han
    • G01V3/00
    • G01N33/241G01N27/041G01V3/14
    • A method for measuring the conducting fluid saturation and the resistivity of a porous medium have application to development of underground geological formations. A solid sample is extracted from the medium and placed in a centrifugation cell, beside a second sample for limiting the capillary end effect in the first sample. The two samples are partly desaturated by subjecting them to centrifugation. The resistivity of the sample is measured by placing it in a radial-electrode resistivity measurement cell. The saturation of the sample is then determined by measuring its nuclear magnetization by means of an NMR device. Repeating this procedure for different centrifugation velocities provides resistivity and saturation pairs allowing a relationship between saturation and resistivity to be estimated.
    • 用于测量导电流体饱和度和多孔介质电阻率的方法可用于开发地下地质构造。 将固体样品从培养基中提取并置于离心细胞中,除了第二个样品外,用于限制第一个样品中的毛细血管末端作用。 两个样品通过使其离心而部分去饱和。 通过将样品放置在径向电极电阻率测量单元中来测量样品的电阻率。 然后通过NMR装置测量其核磁化强度来确定样品的饱和度。 对于不同的离心速度重复此过程提供电阻率和饱和度对,可以估计饱和度和电阻率之间的关系。
    • 6. 发明授权
    • Method and device for measuring physical characteristics of a solid porous sample
    • 用于测量固体多孔样品的物理特性的方法和装置
    • US07257989B2
    • 2007-08-21
    • US11014781
    • 2004-12-20
    • Marc Fleury
    • Marc Fleury
    • G01N15/08
    • G01N33/241G01N15/0826G01N2015/0866
    • A method measures the physical characteristics of at least one solid porous sample (S) saturated with a first fluid by carrying out drainage or imbibition phases, in the presence of a second fluid with a different density from that of the first fluid. A sample saturated with a first fluid, such as brine, is placed in a vessel filled with a second fluid. By means of a centrifugation assembly, the sample is drained until a final saturation pressure is established in the sample. In a second phase, the sample can be soaked. The drainage or imbibition phases are carried out by interposing a porous plate (1) between the sample (S) and the vessel in which it is placed, the porous plate being wettable by the first fluid or the second fluid with preferably an inlet pressure greater than the highest capillary pressure imposed on the face of the sample in contact with the porous plate and perforated with perforations whose number and cross section are adjusted to enable rapid drainage of the fluid contained in the core sample and obtain a substantially uniform saturation profile. The method is applicable in particular to petrophysical measurements.
    • 一种方法通过在与第一流体的密度不同的第二流体的存在下进行排水或吸收阶段来测量至少一个由第一流体饱和的固体多孔样品(S)的物理特性。 用第一流体(例如盐水)饱和的样品放置在填充有第二流体的容器中。 通过离心组装,将样品排干,直到在样品中建立最终的饱和压力。 在第二阶段,样品可以浸泡。 排水或吸入阶段通过在样品(S)和其放置的容器之间插入多孔板(1)来进行,多孔板可被第一流体或第二流体润湿,优选地具有较大的入口压力 比施加在与多孔板接触的样品表面上的最高毛细管压力穿孔,穿孔其数量和横截面被调整以使得包含在芯样品中的流体能够快速排出并获得基本均匀的饱和曲线。 该方法特别适用于岩石物理测量。
    • 7. 发明授权
    • Method for determining the resistivity index, as a function of the water saturation, of certain rocks of complex porosity
    • 确定某些复杂孔隙岩石的电阻率指数作为水饱和度的函数的方法
    • US06879154B2
    • 2005-04-12
    • US10658535
    • 2003-09-10
    • Marc Fleury
    • Marc Fleury
    • G01N27/04G01N33/24G01V3/32G01V3/00
    • G01N33/241G01N27/041G01V3/32Y02A90/342
    • A method for determining the variations of the resistivity index (RI) of a family of rock samples of complex pore structure with at least two pore networks, as a function of the water saturation (Sw), and in the presence of a non-oil conducting fluid. The volume fraction (f1, f2, f3) occupied by each pore network and the distribution of the pore throats in the various pore networks are determined for each sample of the family. The values of coefficients relating the variation of its electrical resistivity as a function of its water saturation (Sw) are experimentally determined on a sample of the family used as a reference sample. The resistivity index (RI) of all the samples of the family is then determined on the basis of the variation of parameters describing the layout of the pore network, and using the values of the coefficients measured on the reference sample. The method allows measurement of a continuous resistivity index curve which is not obtained, as in conventional techniques, from only a limited number of points at capillary equilibrium.
    • 用于确定具有至少两个孔网络的复杂孔结构的岩石样本族的电阻率指数(RI)的变化作为水饱和度(Sw)的函数以及在非油存在下的变化的方法 导电流体。 确定每个孔网络所占据的体积分数(f1,f2,f3)以及各孔隙网络中孔喉的分布情况。 将其电阻率的变化与其水饱和度(Sw)的函数相关联的系数的值通过用作参考样品的家族样品进行实验确定。 然后根据描述孔网络布局的参数的变化,并使用在参考样品上测量的系数值,确定该系列所有样品的电阻率指数(RI)。 该方法允许测量如在常规技术中从毛细管平衡的仅有限数量的点获得的连续电阻率指数曲线。
    • 9. 发明申请
    • Method for Fast Measurement of the Saturation and the Resistivity of a Porous Medium
    • 快速测量多孔介质饱和度和电阻率的方法
    • US20090066335A1
    • 2009-03-12
    • US12204932
    • 2008-09-05
    • Marc FleuryMei Han
    • Marc FleuryMei Han
    • G01V3/32
    • G01N33/241G01N27/041G01V3/14
    • A method for measuring the conducting fluid saturation and the resistivity of a porous medium have application to development of underground geological formations. A solid sample is extracted from the medium and placed in a centrifugation cell, beside a second sample for limiting the capillary in the first sample. The two samples are partly desaturated by subjecting them to centrifugation. The resistivity of the sample is measured by placing it in a radial-electrode resistivity measurement cell. The saturation of the sample is then determined by measuring its nuclear magnetization by means of an NMR device. Repeating this procedure for different centrifugation velocities provide resistivity and saturation pairs allowing a relationship between saturation and resistivity to be estimated.
    • 用于测量导电流体饱和度和多孔介质电阻率的方法可用于开发地下地质构造。 将固体样品从培养基中提取并置于离心细胞中,除了第二个样品外,用于限制第一个样品中的毛细管。 两个样品通过使其离心而部分去饱和。 通过将样品放置在径向电极电阻率测量单元中来测量样品的电阻率。 然后通过NMR装置测量其核磁化强度来确定样品的饱和度。 对于不同的离心速度重复此过程提供电阻率和饱和度对,以便估计饱和度和电阻率之间的关系。
    • 10. 发明申请
    • Method and device for measuring physical characteristics of a solid porous sample
    • 用于测量固体多孔样品的物理特性的方法和装置
    • US20050240360A1
    • 2005-10-27
    • US11014781
    • 2004-12-20
    • Marc Fleury
    • Marc Fleury
    • G01N15/08G01N33/24G06F19/00
    • G01N33/241G01N15/0826G01N2015/0866
    • Method for measuring the physical characteristics of at least one solid porous sample (S) saturated with a first fluid by carrying out drainage or imbibition phases, in the presence of a second fluid with a different density from that of the first fluid. A sample saturated with a first fluid such as brine is placed in a vessel filled with a second fluid. By means of a centrifugation assembly, the sample is drained until a final saturation pressure is established in the sample. In a second phase, the sample can be soaked. The drainage or imbibition phases are carried out by interposing a porous plate (1) between the sample (S) and the vessel in which it is placed, said porous plate being wettable by the first fluid or the second fluid with preferably an inlet pressure greater than the highest capillary pressure imposed on the face of the sample in contact with the porous plate and perforated with perforations whose number and cross section are adjusted to enable rapid drainage of the fluid contained in the core sample and obtain a substantially uniform saturation profile. Applications in particular to petrophysical measurements.
    • 在与第一流体密度不同的第二流体的存在下,通过进行排水或吸收相来测量至少一个由第一流体饱和的固体多孔样品(S)的物理特性的方法。 用第一流体(例如盐水)饱和的样品放置在填充有第二流体的容器中。 通过离心组装,将样品排干,直到在样品中建立最终的饱和压力。 在第二阶段,样品可以浸泡。 排水或吸入阶段通过在样品(S)和其放置的容器之间插入多孔板(1)来进行,所述多孔板可被第一流体或第二流体润湿,优选地具有较大的入口压力 比施加在与多孔板接触的样品表面上的最高毛细管压力穿孔,穿孔其数量和横截面被调整以使得包含在芯样品中的流体能够快速排出并获得基本均匀的饱和曲线。 特别适用于岩石物理测量。