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    • 92. 发明申请
    • Electromagnetic surveying for hydrocarbon reservoirs
    • 油气藏电磁测量
    • US20070150201A1
    • 2007-06-28
    • US11585585
    • 2006-10-24
    • Terje EidesmoSvein Ellingsrud
    • Terje EidesmoSvein Ellingsrud
    • G06F19/00
    • G01V3/12G01V3/083Y02A90/344
    • An electromagnetic survey method for surveying an area previously identified as potentially containing a subsea hydrocarbon reservoir, comprising obtaining first and second survey data sets with an electromagnetic source aligned end-on and broadside relative to the same or different receivers. The invention also relates to planning a survey using this method, and to analysis of survey data taken in combination allow the galvanic contribution to the signals collected at the receiver to be contrasted with the inductive effects, and the effects of signal attenuation, which are highly dependent on local properties of the rock formation, overlying water and air at the survey area. This is very important to the success of using electromagnetic surveying for identifying hydrocarbon reserves and distinguishing them from other classes of structure.
    • 一种用于测量先前被识别为潜在地包含海底碳氢化合物油藏的区域的电磁勘测方法,包括获得具有相对于相同或不同的接收器的末端对准和远侧的电磁源的第一和第二测量数据集。 本发明还涉及使用这种方法来规划调查,并且对组合的调查数据的分析允许对在接收机处收集的信号的电流贡献与感应效应对比,并且信号衰减的影响是高度的 取决于岩层的局部性质,覆盖在测量区域的水和空气。 这对于使用电磁勘探来确定碳氢化合物储量并将其与其他类型的结构区分开来是非常重要的。
    • 93. 发明申请
    • Electromagnetic surveying for hydrocarbon reservoirs
    • 油气藏电磁测量
    • US20070021916A1
    • 2007-01-25
    • US10554236
    • 2004-04-30
    • Lucy MacGregorMartin Sinha
    • Lucy MacGregorMartin Sinha
    • G01V1/40
    • G01V3/12G01V3/083Y02A90/344
    • A method of electromagnetic surveying of an area of seafloor that is thought or known to contain a subterranean hydrocarbon reservoir is described. The method includes broadcasting an EM signal from a horizontal electric dipole (HED) transmitter and obtaining vertical electric dipole (VED) response data at a remote receiver in response thereto. Survey data are analysed by comparing the VED response data with background data which are not sensitive to the postulated hydrocarbon reservoir. Accordingly, differences between the VED response data and the background data allow for the identification of buried hydrocarbon reservoirs. The background data may be provided by magneto-telluric surveying, controlled source electromagnetic surveying or from direct geophysical measurement. By employing VED response data in this way, surveys may be performed in shallower water than has previously been possible since the VED detector is not sensitive to air-wave components of the EM field induced by the HED transmitter at the VED detector.
    • 描述了认为或已知含有地下油气藏的海底区域的电磁勘测方法。 该方法包括从水平电偶极子(HED)发射器广播EM信号,并响应于远程接收机获得垂直电偶极子(VED)响应数据。 通过比较VED响应数据和对假设的油气藏不敏感的背景数据来分析调查数据。 因此,VED响应数据和背景数据之间的差异允许识别埋藏的油气藏。 背景数据可以通过磁碲测量,受控源电磁测量或直接地球物理测量来提供。 通过以这种方式采用VED响应数据,可以在比以前可能的浅水中进行调查,因为VED检测器对由VED检测器处的​​HED发射器感应的EM场的气波分量不敏感。
    • 94. 发明申请
    • Geophysical data acquisition system
    • 地球物理数据采集系统
    • US20060238200A1
    • 2006-10-26
    • US10562825
    • 2004-06-18
    • Svein Johnstad
    • Svein Johnstad
    • G01V3/00
    • G01V1/38G01V1/201G01V3/08G01V11/00G01V11/007Y02A90/344
    • The invention comprises a geophysical sensor apparatus for use under water in the sea, comprising a plurality of seismic sensors (1) for sensing seismic waves associated with underground formations, and a plurality of EM-sensors constituted preferably by electrodes (4) for sensing electromagnetic waves associated with said underground formations. In a preferred receiver cable configuration embodiment of the invention, the geophysical sensor apparatus comprises a seismic receiver cable with a linear array of a plurality of seismic sensors (1) and EM-sensors arranged inside a flexible outer skin (25), with said EM-sensors having electrodes on the outside of said outer skin. The cable is operated on the seafloor by a surface vessel, said vessel towing an electromagnetic transmitter antenna in addition to the seismic source.
    • 本发明包括一种用于海洋中的水下的地球物理传感器装置,包括用于感测与地下结构相关的地震波的多个地震传感器(1),以及多个优选由电极(4)构成的EM传感器,用于感测电磁 与所述地下组合有关的波浪。 在本发明的优选的接收器电缆配置实施例中,地球物理传感器设备包括具有多个地震传感器(1)的线性阵列和布置在柔性外皮(25)内的EM-传感器的地震接收器电缆,所述EM 在所述外皮的外侧具有电极的传感器。 电缆通过地面船舶在海底上操作,所述容器除了地震源之外还牵引电磁发射机天线。
    • 95. 发明授权
    • System and method for hydrocarbon reservoir monitoring using controlled-source electromagnetic fields
    • 使用受控源电磁场进行油气藏监测的系统和方法
    • US07109717B2
    • 2006-09-19
    • US10538326
    • 2003-12-10
    • Steven C. Constable
    • Steven C. Constable
    • G01V3/12
    • G01V3/12G01V3/083Y02A90/344
    • The system and method for real-time monitoring of a hydrocarbon reservoir (4) during extraction include an electro-magnetic source assembly (16) for transmitting a first plurality of electromagnetic fields. A plurality of seafloor antennae (30a–30d) is distributed over an area of the seafloor (8) corresponding to the reservoir (4), where each antenna (30a–30d) comprises recieves electrode array (30a–30d) adapted for receiving a second plurality of electromagnetic fields and generating signals corresponding to the detected fields. A data logging processor receives the signals over time and stores data corresponding to the signals. Different combinations of the receiver electrode are used in combination with transmitter antennae for measuring vertical, radial and/or azimuthal fields. Transmission and detection of the fields can be performed continuously or at timed intervals during hydrocarbon extraction to estimate the rate and efficiency of extraction.
    • 在提取期间用于实时监测烃储存器(4)的系统和方法包括用于传输第一多个电磁场的电磁源组件(16)。 多个海底天线(30a至30d)分布在对应于储存器(4)的海底区域(8)上,其中每个天线(30a至30d)包括接收电极阵列(30a-30d) d)适于接收第二多个电磁场并产生对应于所检测的场的信号。 数据记录处理器随时间接收信号并存储对应于该信号的数据。 接收器电极的不同组合与用于测量垂直,径向和/或方位角场的发射器天线组合使用。 可以在烃提取期间连续地或以时间间隔进行场的传输和检测,以估计提取的速率和效率。
    • 96. 发明申请
    • Electromagnetic surveying for hydrocarbon reservoirs
    • 油气藏电磁测量
    • US20050077902A1
    • 2005-04-14
    • US10497807
    • 2002-11-28
    • Lucy MacGregorMartin Sinha
    • Lucy MacGregorMartin Sinha
    • G01V3/12G01V3/08
    • G01V3/12G01V3/083Y02A90/344
    • An electro-magnetic survey method for surveying an area previously identified as potentially containing a subsea hydrocarbon reservoir, comprising obtaining first and second survey data sets with an electromagnetic source aligned end-on and broadside relative to the same or different receivers. The invention also relates to planning a survey using this method, and to analysis of survey data taken in combination allow the galvanic contribution to the signals collected at the receiver to be contrasted with the inductive effects, and the effects of signal attenuation, which are highly dependent on local properties of the rock formation, overlying water and air at the survey area. This is very important to the success of using electromagnetic surveying for identifying hydrocarbon reserves and distinguishing them from other classes of structure.
    • 一种用于测量先前被识别为潜在地包含海底碳氢化合物储层的区域的电磁测量方法,包括获得具有相对于相同或不同接收器的端对齐和远端的电磁源的第一和第二测量数据集。 本发明还涉及使用这种方法来规划调查,并且对组合的调查数据的分析允许对在接收机处收集的信号的电流贡献与感应效应对比,并且信号衰减的影响是高度的 取决于岩层的局部性质,覆盖在测量区域的水和空气。 这对于使用电磁勘探来确定碳氢化合物储量并将其与其他类型的结构区分开来是非常重要的。
    • 100. 发明授权
    • Method and system for predicting rapid motion in earth's crust on basis of electromagnetic field observation
    • 基于电磁场观测预测地壳快速运动的方法和系统
    • US06622093B1
    • 2003-09-16
    • US09671312
    • 2000-09-28
    • Yukio FujinawaHiroshi IitakaKozo Takahashi
    • Yukio FujinawaHiroshi IitakaKozo Takahashi
    • G01V100
    • G01V9/02G01V3/12Y02A90/344Y02A90/36
    • A casing pipe is inserted into a drilled hole reaching the inside of a confined aquifer in which groundwater is stored and flows or a position near the confined aquifer. A measuring device measures an electromagnetic field at the distal end of the casing pipe. An analyzing device analyzes data concerning the electromagnetic field measured by the measuring device to sense motion of ground pore water, thereby predicting rapid motion in the earth's crust, such as a volcanic eruption, an earthquake, a landslide and ground collapse. The casing pipe is an electrically conductive pipe having a non-magnetic screen portion formed at the distal end thereof so that recycling groundwater passes through the screen portion. The measuring device includes an electromagnetic field sensor placed in the screen portion and the conductive casing pipe as an electrode for measuring an electric potential relative to an electric potential at the earth's surface detected with a reference electrode.
    • 将套管插入到钻井孔中,该钻孔通向地下水储存和流动的密闭含水层的内部或靠近受限含水层的位置。 测量装置测量套管末端的电磁场。 分析装置分析由测量装置测量的电磁场的数据,以感测地孔隙水的运动,从而预测地壳中的快速运动,如火山喷发,地震,滑坡和地面崩塌。 套管是具有形成在其远端处的非磁性筛部的导电管,使得回收地下水通过筛网部分。 测量装置包括放置在屏幕部分中的电磁场传感器和作为用于测量相对于用参考电极检测的地球表面的电位的电位的电极的导电套管。