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    • 3. 发明申请
    • Downhole measurement of formation characteristics while drilling
    • 钻井时地层特征的井下测量
    • US20070137293A1
    • 2007-06-21
    • US11312683
    • 2005-12-19
    • Julian PopReza TaherianMartin PoitzschJacques Tabanou
    • Julian PopReza TaherianMartin PoitzschJacques Tabanou
    • E21B49/08
    • E21B49/005E21B49/081
    • A method for determining a property of formations surrounding an earth borehole being drilled with a drill bit at the end of a drill string, using drilling fluid that flows downward through the drill string, exits through the drill bit, and returns toward the earth's surface in the annulus between the drill string and the periphery of the borehole, including the following steps: obtaining, downhole near the drill bit, a pre-bit sample of the mud in the drill string as it approaches the drill bit; obtaining, downhole near the drill bit, a post-bit sample of the mud in the annulus, entrained with drilled earth formation, after its egression from the drill bit; implementing pre-bit measurements on the pre-bit sample; implementing post-bit measurements on the post-bit sample; and determining a property of the formations from the post-bit measurements and the pre-bit measurements.
    • 一种用于确定围绕钻井的地层钻孔的性质的方法,其使用在钻柱上向下流动的钻井流体在钻柱的端部钻出,通过钻头离开,并朝向地球表面返回 钻柱与钻孔周边之间的环形空间,包括以下步骤:在钻柱附近获得钻头附近的井下钻头样品,当钻柱接近钻头时; 在钻头附近获得钻孔附近的井下钻孔后的钻头样品,在钻头从其钻出之后夹带钻井泥土; 对前置位采样执行预位测量; 对后位采样进行后位测量; 以及从后位测量和前位测量确定地层的属性。
    • 4. 发明授权
    • Methods and apparatus for measuring flow velocity in a wellbore using NMR and applications using same
    • 使用NMR测量井眼流速的方法和装置以及使用其的应用
    • US06528995B1
    • 2003-03-04
    • US09951914
    • 2001-09-10
    • Peter SpeierJulian PopMartin Poitzsch
    • Peter SpeierJulian PopMartin Poitzsch
    • G01V300
    • G01V3/32G01N24/081G01R33/563
    • The present invention provides met hods and apparatus for determining flow velocity within a formation utilizing nuclear magnetic resonance (NMR) techniques in which the shape of the resonance region is restricted so that sensitivity to radial flow or vertical flow is obtained (or both when more than one NMR tool is used). Flow velocity using these NMR tools is determined using decay amplitude, frequency displacement or stimulated echoes (where the spins are stored along the magnetic field instead of the transverse plane to exploit echo decays and frequency displacements) based on the application of adiabatic pulses. Based on the described NMR measurement of flow velocity, additional wellbore parameters may be obtained such as a direct measurement of permeability, an assessment of drilling damage to the wellbore, formation pressure, invasion rate of the mud filtrate or the migration of fine mud particles during sampling operations.
    • 本发明提供了使用核磁共振(NMR)技术确定地层内的流速的测井仪和设备,其中共振区域的形状受到限制,以便获得对径向流动或垂直流动的敏感性(或当超过 使用一个NMR工具)。 基于绝热脉冲的应用,使用衰减幅度,频率位移或受激回波(其中旋转沿着磁场而不是横向平面存储以利用回波衰减和频率位移)来确定使用这些NMR工具的流速。 基于所描述的流速的NMR测量,可以获得额外的井眼参数,例如直接测量渗透率,评估钻井对井眼的破坏,地层压力,泥浆滤液的侵入速率或细泥浆颗粒的迁移 采样作业。
    • 5. 发明授权
    • Particle acceleration devices and methods thereof
    • 粒子加速装置及其方法
    • US08610352B2
    • 2013-12-17
    • US12210307
    • 2008-09-15
    • Tancredi BottoMartin Poitzsch
    • Tancredi BottoMartin Poitzsch
    • H05H9/00
    • H05H15/00H01P1/2005
    • A particle accelerator device structured and arranged for use in a subterranean environment. The particle accelerator device comprising: one or more resonant Photonic Band Gap (PBG) cavity, the one or more resonant PBG cavity is capable of providing localized, resonant electro-magnetic (EM) fields so as to one of accelerate, focus or steer particle beams of one of a plurality of electrons or a plurality of ions. Further, the particle accelerator device may provide for the one or more resonant PBG cavity to include a geometry and one or more material that is optimized in terms of RF power losses, wherein the optimization provides for a PBG cavity quality factor significantly higher than that of an equivalent normally conducting pill-box cavity.
    • 构造和布置用于地下环境的颗粒加速装置。 所述粒子加速器装置包括:一个或多个共振光子带隙(PBG)腔,所述一个或多个共振PBG腔能够提供局部的共振电磁场(EM)场,以便加速,聚焦或转向粒子之一 多个电子中的一个或多个离子的光束。 此外,粒子加速器装置可以提供一个或多个谐振PBG腔以包括在RF功率损耗方面优化的几何形状和一种或多种材料,其中优化提供了明显高于RF功率损耗的PBG腔质量因子 相当于正常导电的药丸腔。
    • 6. 发明申请
    • PARTICLE ACCELERATION DEVICES AND METHODS THEREOF
    • 颗粒加速装置及其方法
    • US20090072744A1
    • 2009-03-19
    • US12210307
    • 2008-09-15
    • Tancredi BOTTOMartin POITZSCH
    • Tancredi BOTTOMartin POITZSCH
    • H05H9/00
    • H05H15/00H01P1/2005
    • A particle accelerator device structured and arranged for use in a subterranean environment. The particle accelerator device comprising: one or more resonant Photonic Band Gap (PBG) cavity, the one or more resonant PBG cavity is capable of providing localized, resonant electro-magnetic (EM) fields so as to one of accelerate, focus or steer particle beams of one of a plurality of electrons or a plurality of ions. Further, the particle accelerator device may provide for the one or more resonant PBG cavity to include a geometry and one or more material that is optimized in terms of RF power losses, wherein the optimization provides for a PBG cavity quality factor significantly higher than that of an equivalent normally conducting pill-box cavity.
    • 构造和布置用于地下环境的颗粒加速装置。 所述粒子加速器装置包括:一个或多个共振光子带隙(PBG)腔,所述一个或多个共振PBG腔能够提供局部的共振电磁场(EM)场,以便加速,聚焦或转向粒子之一 多个电子中的一个或多个离子的光束。 此外,粒子加速器装置可以提供一个或多个谐振PBG腔以包括在RF功率损耗方面优化的几何形状和一种或多种材料,其中优化提供了明显高于RF功率损耗的PBG腔质量因子 相当于正常导电的药丸腔。
    • 7. 发明申请
    • HIGHLY INTEGRATED LOGGING TOOL
    • 高度集成的记录工具
    • US20060290354A1
    • 2006-12-28
    • US11160490
    • 2005-06-27
    • Mark FredetteMartin Poitzsch
    • Mark FredetteMartin Poitzsch
    • G01V3/00G01V3/02G01V3/04
    • G01V11/005G01V3/24
    • An apparatus for logging a formation traversed by a borehole includes a plurality of logging tools adapted for conveyance inside the borehole. The plurality of logging tools includes a tool body, a sensing pad responsive to a density property of the formation coupled to the tool body, a current emitting measure electrode responsive to a lateral resistivity property of the formation incorporated on the sensing pad, a mechanism for urging the sensing pad in contact with a side of the borehole coupled to the tool body, and a pair of mass isolation bands disposed about the tool body to isolate a mass of the tool body adjacent the measure electrode.
    • 用于记录由钻孔穿过的地层的装置包括适于在钻孔内传送的多个测井工具。 所述多个测井工具包括工具主体,响应于耦合到工具主体的地层的密度特性的感测板,响应于结合在感测板上的地层的横向电阻特性的电流发射测量电极,用于 推动感测垫与耦合到工具主体的钻孔的一侧接触;以及一对质量隔离带,其设置在工具主体周围,以隔离与测量电极相邻的工具体的质量。
    • 9. 发明授权
    • Methods and apparatus for measuring flow velocity in a wellbore using NMR and applications using same
    • 使用NMR测量井眼流速的方法和装置以及使用其的应用
    • US06710596B2
    • 2004-03-23
    • US10242111
    • 2002-09-12
    • Peter SpeierJulian PopMartin Poitzsch
    • Peter SpeierJulian PopMartin Poitzsch
    • G01V300
    • G01V3/32G01N24/081G01R33/563
    • The present invention provides methods and apparatus for determining flow velocity within a formation utilizing nuclear magnetic resonance (NMR) techniques in which the shape of the resonance region is restricted so that sensitivity to radial flow or vertical flow is obtained (or both when more than one NMR tool is used). Flow velocity using these NMR tools is determined using decay amplitude, frequency displacement or stimulated echoes (where the spins are stored along the magnetic field instead of the transverse plane to exploit echo decays and frequency displacements) based on the application of adiabatic pulses. Based on the described NMR measurement of flow velocity, additional wellbore parameters may be obtained such as a direct measurement of permeability, an assessment of drilling damage to the wellbore, formation pressure, invasion rate of the mud filtrate or the migration of fine mud particles during sampling operations.
    • 本发明提供了使用核磁共振(NMR)技术确定地层内流速的方法和装置,其中共振区域的形状受到限制,以便获得对径向流动或垂直流动的敏感性(或者当多于一个 使用NMR工具)。 基于绝热脉冲的应用,使用衰减幅度,频率位移或受激回波(其中旋转沿着磁场而不是横向平面存储以利用回波衰减和频率位移)来确定使用这些NMR工具的流速。 基于所描述的流速的NMR测量,可以获得额外的井眼参数,例如直接测量渗透率,评估钻井对井眼的破坏,地层压力,泥浆滤液的侵入速率或细泥浆颗粒的迁移 采样作业。