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
    • Downhole optical radiometry tool
    • 井下光学辐射测量工具
    • US09091151B2
    • 2015-07-28
    • US13502805
    • 2010-11-18
    • Christopher M. JonesStephen A. ZannoniMichael T. PelletierRaj PaiWei ZhangMarian L. MorysRobert Atkinson
    • Christopher M. JonesStephen A. ZannoniMichael T. PelletierRaj PaiWei ZhangMarian L. MorysRobert Atkinson
    • G01V5/08E21B47/10E21B49/10
    • E21B47/102E21B49/10
    • Various methods and tools optically analyze downhole fluid properties in situ. Some disclosed downhole optical radiometry tools include a tool body having a sample cell for fluid flow. A light beam passes through the sample cell and a spectral operation unit (SOU) such as a prism, filter, interferometer, or multivariate optical element (MOE). The resulting light provides a signal indicative of one or more properties of the fluid. A sensor configuration using electrically balanced thermopiles offers a high sensitivity over a wide temperature range. Further sensitivity is achieved by modulating the light beam and/or by providing a reference light beam that does not interact with the fluid flow. To provide a wide spectral range, some embodiments include multiple filaments in the light source, each filament having a different emission spectrum. Moreover, some embodiments include a second light source, sample cell, SOU, and detector to provide increased range, flexibility, and reliability.
    • 各种方法和工具可以原位分析井下流体性质。 一些公开的井下光学辐射测量工具包括具有用于流体流动的样品池的工具主体。 光束通过样品池和诸如棱镜,滤光器,干涉仪或多元光学元件(MOE)的光谱操作单元(SOU)。 所得到的光提供指示流体的一个或多个特性的信号。 使用电平衡热电堆的传感器配置在宽温度范围内提供高灵敏度。 通过调制光束和/或通过提供不与流体流相互作用的参考光束来实现进一步的灵敏度。 为了提供宽的光谱范围,一些实施例包括光源中的多个细丝,每个细丝具有不同的发射光谱。 此外,一些实施例包括第二光源,样品池,SOU和检测器,以提供更大的范围,灵活性和可靠性。
    • 2. 发明申请
    • Downhole Optical Radiometry Tool
    • 井下光学辐射测量工具
    • US20120211650A1
    • 2012-08-23
    • US13502805
    • 2010-11-18
    • Christopher M. JonesStephen A. ZannoniMichael T. PelletierRaj PaiWei ZhangMarina L. Morys
    • Christopher M. JonesStephen A. ZannoniMichael T. PelletierRaj PaiWei ZhangMarina L. Morys
    • G01V8/02
    • E21B47/102E21B49/10
    • Various methods and tools optically analyze downhole fluid properties in situ. Some disclosed downhole optical radiometry tools include a tool body having a sample cell for fluid flow. A light beam passes through the sample cell and a spectral operation unit (SOU) such as a prism, filter, interferometer, or multivariate optical element (MOE). The resulting light provides a signal indicative of one or more properties of the fluid. A sensor configuration using electrically balanced thermopiles offers a high sensitivity over a wide temperature range. Further sensitivity is achieved by modulating the light beam and/or by providing a reference light beam that does not interact with the fluid flow. To provide a wide spectral range, some embodiments include multiple filaments in the light source, each filament having a different emission spectrum. Moreover, some embodiments include a second light source, sample cell, SOU, and detector to provide increased range, flexibility, and reliability.
    • 各种方法和工具可以原位分析井下流体性质。 一些公开的井下光学辐射测量工具包括具有用于流体流动的样品池的工具主体。 光束通过样品池和诸如棱镜,滤光器,干涉仪或多元光学元件(MOE)的光谱操作单元(SOU)。 所得到的光提供指示流体的一个或多个特性的信号。 使用电平衡热电堆的传感器配置在宽温度范围内提供高灵敏度。 通过调制光束和/或通过提供不与流体流相互作用的参考光束来实现进一步的灵敏度。 为了提供宽的光谱范围,一些实施例包括光源中的多个细丝,每个细丝具有不同的发射光谱。 此外,一些实施例包括第二光源,样品池,SOU和检测器,以提供更大的范围,灵活性和可靠性。
    • 3. 发明授权
    • Analyzing fluid within a context
    • 在上下文中分析流体
    • US08762063B2
    • 2014-06-24
    • US13213195
    • 2011-08-19
    • Wei ZhangChristopher M. JonesMichael T. PelletierRobert S. AtkinsonStephen A. Zannoni
    • Wei ZhangChristopher M. JonesMichael T. PelletierRobert S. AtkinsonStephen A. Zannoni
    • G06F19/00
    • E21B49/10E21B47/102
    • A processor accepts sensor data about a geological formation from a sensor. The sensor data is such that processing the sensor data using a processing technique to estimate a parameter of the geological formation without a constraint, whose value is not yet known, produces a plurality of non-unique estimates of the parameter. The processor accepts more than two time-displaced images of fluid sampled from the geological formation. The time displacements between the images are substantially defined by a mathematical series. The processor processes the images to determine the constraint. The processor processes the sensor data using the processing technique constrained by the constraint to estimate the parameter of the geological formation. The processor uses the estimated parameter to affect the drilling of a well through the geological formation.
    • 处理器从传感器接收关于地质构造的传感器数据。 传感器数据是这样的,即使用处理技术来处理传感器数据,以估计地质构造的参数,而不受其值尚未知晓的限制,产生参数的多个非唯一估计。 处理器接受来自地质构造采集的流体的两个以上的时间偏移图像。 图像之间的时间位移基本上由数学系列定义。 处理器处理图像以确定约束。 处理器使用由约束约束的处理技术来处理传感器数据,以估计地质构造的参数。 处理器使用估计的参数来影响通过地质构造的井的钻探。
    • 4. 发明申请
    • Analyzing Fluid Within a Context
    • 在背景下分析流体
    • US20130046473A1
    • 2013-02-21
    • US13213195
    • 2011-08-19
    • Wei ZhangChristopher M. JonesMichael T. PelletierRobert S. AtkinsonStephen A. Zannoni
    • Wei ZhangChristopher M. JonesMichael T. PelletierRobert S. AtkinsonStephen A. Zannoni
    • G06F19/00
    • E21B49/10E21B47/102
    • A processor accepts sensor data about a geological formation from a sensor. The sensor data is such that processing the sensor data using a processing technique to estimate a parameter of the geological formation without a constraint, whose value is not yet known, produces a plurality of non-unique estimates of the parameter. The processor accepts more than two time-displaced images of fluid sampled from the geological formation. The time displacements between the images are substantially defined by a mathematical series. The processor processes the images to determine the constraint. The processor processes the sensor data using the processing technique constrained by the constraint to estimate the parameter of the geological formation. The processor uses the estimated parameter to affect the drilling of a well through the geological formation.
    • 处理器从传感器接收关于地质构造的传感器数据。 传感器数据是这样的,即使用处理技术来处理传感器数据,以估计地质构造的参数,而不受其值尚未知晓的限制,产生参数的多个非唯一估计。 处理器接受来自地质构造采集的流体的两个以上的时间偏移图像。 图像之间的时间位移基本上由数学系列定义。 处理器处理图像以确定约束。 处理器使用由约束约束的处理技术来处理传感器数据,以估计地质构造的参数。 处理器使用估计的参数来影响通过地质构造的井的钻探。
    • 6. 发明授权
    • 3D borehole imager
    • 3D钻孔成像仪
    • US09411068B2
    • 2016-08-09
    • US13061759
    • 2009-11-23
    • Michael S. BittarJing LiStephen A. Zannoni
    • Michael S. BittarJing LiStephen A. Zannoni
    • G06F19/00G01V3/12G01V3/30G01V3/18G01V3/10
    • G01V3/30G01V3/10G01V3/18
    • Logging tools and methods for obtaining a three-dimensional (3D) image of the region around a borehole. In at least some embodiments, a 3D imaging tool rotates, transmitting pulses that are approximately a nanosecond long and measuring the time it takes to receive reflections of these pulses. Multiple receivers are employed to provide accurate triangulation of the reflectors. In some cases, multiple transmitters are employed to obtain compensated measurements, i.e., measurements that compensate for variations in the receiver electronics. Because reflections occur at boundaries between materials having different dielectric constants, the 3D imaging tool can map out such boundaries in the neighborhood of the borehole. Such boundaries can include: the borehole wall itself, boundaries between different formation materials, faults or other discontinuities in a formation, and boundaries between fluids in a formation. Depending on various factors, the size of the borehole neighborhood mapped out can be as large as 1 meter.
    • 用于获得钻孔周围区域的三维(3D)图像的测井工具和方法。 在至少一些实施例中,3D成像工具旋转,传输大约为纳秒长的脉冲,并测量接收这些脉冲反射所花费的时间。 采用多个接收器来提供反射器的准确三角测量。 在一些情况下,采用多个发射机来获得补偿测量值,即补偿接收机电子设备变化的测量结果。 因为反射发生在具有不同介电常数的材料之间的边界处,所以3D成像工具可以在钻孔附近映射这样的边界。 这种边界可以包括:井壁本身,不同地层材料之间的边界,地层中的断层或其他不连续性,以及地层中流体之间的边界。 根据各种因素,绘制出的井眼附近的大小可以大到1米。
    • 8. 发明申请
    • 3D Borehole Imager
    • 3D钻孔成像仪
    • US20110251794A1
    • 2011-10-13
    • US13061759
    • 2009-11-23
    • Michael S. BittarJing LiStephen A. Zannoni
    • Michael S. BittarJing LiStephen A. Zannoni
    • G01V3/12G06F19/00
    • G01V3/30G01V3/10G01V3/18
    • Logging tools and methods for obtaining a three-dimensional (3D) image of the region around a borehole. In at least some embodiments, a 3D imaging tool rotates, transmitting pulses that are approximately a nanosecond long and measuring the time it takes to receive reflections of these pulses. Multiple receivers are employed to provide accurate triangulation of the reflectors. In some cases, multiple transmitters are employed to obtain compensated measurements, i.e., measurements that compensate for variations in the receiver electronics. Because reflections occur at boundaries between materials having different dielectric constants, the 3D imaging tool can map out such boundaries in the neighborhood of the borehole. Such boundaries can include: the borehole wall itself, boundaries between different formation materials, faults or other discontinuities in a formation, and boundaries between fluids in a formation. Depending on various factors, the size of the borehole neighborhood mapped out can be as large as 1 meter.
    • 用于获得钻孔周围区域的三维(3D)图像的测井工具和方法。 在至少一些实施例中,3D成像工具旋转,传输大约为纳秒长的脉冲,并测量接收这些脉冲反射所花费的时间。 采用多个接收器来提供反射器的准确三角测量。 在一些情况下,采用多个发射机来获得补偿测量值,即补偿接收机电子设备变化的测量结果。 因为反射发生在具有不同介电常数的材料之间的边界处,所以3D成像工具可以在钻孔附近映射这样的边界。 这种边界可以包括:井壁本身,不同地层材料之间的边界,地层中的断层或其他不连续性,以及地层中流体之间的边界。 根据各种因素,绘制出的井眼附近的大小可以大到1米。