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公开(公告)号：US09228918B2
公开(公告)日：2016-01-05
申请号：US14282022
申请日：2014-05-20
Applicant: Halliburton Energy Services, Inc.
Inventor： Ola Tunheim , Robert P. Freese , Laurence James Abney , Christopher M. Jones , James Robert MacLennan
IPC: G01N21/00 , G01M3/38 , G01N21/85 , G01N21/31 , G01N21/954 , G01N21/17 , G01N21/27 , G01M3/00 , G01J3/02
CPC classification number: G01M3/38 , G01J3/02 , G01M3/005 , G01N21/17 , G01N21/27 , G01N21/31 , G01N21/85 , G01N21/954
Abstract: An example method includes introducing a movable inline inspection device into a pipeline, the movable inline inspection device having a housing that defines a conduit therein which provides fluid communication through the movable inline inspection device in the form of a bypass fluid, the conduit having one or more optical computing devices arranged thereon for monitoring the bypass fluid, wherein each optical computing device has at least one integrated computational element arranged therein, generating an output signal corresponding to a characteristic of the bypass fluid with at least one detector arranged within each optical computing device, receiving the output signal from each optical computing device with a signal processor communicably coupled to the at least one detector of each optical computing device, and determining with the signal processor the characteristic of the bypass fluid detected by each optical computing device.
Abstract translation: 一种示例性方法包括将可移动的在线检查装置引入到管道中，该可移动的在线检查装置具有限定其中的导管的壳体，其以旁路流体的形式通过可移动的在线检查装置提供流体连通，该导管具有一个或 布置在其上的用于监测旁路流体的更多光学计算装置，其中每个光学计算装置具有布置在其中的至少一个集成的计算元件，其中布置有每个光学计算装置内的至少一个检测器产生对应于旁路流体的特性的输出信号 通过可通信地耦合到每个光学计算设备的至少一个检测器的信号处理器接收来自每个光学计算设备的输出信号，以及利用信号处理器确定每个光学计算设备检测到的旁路流体的特性。
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32.发明授权公开(公告)号：US09157793B2
公开(公告)日：2015-10-13
申请号：US14712717
申请日：2015-05-14
Applicant: Halliburton Energy Services, Inc.
Inventor： Michael Pelletier , William Soltmann , David L. Perkins , Christopher M. Jones
CPC classification number: G01J1/08 , E21B47/102 , E21B49/08 , G01J3/0205 , G01J3/027 , G01J3/10 , G01J3/108 , G01J3/427 , G01J3/433 , G01J5/522 , G01N21/31 , G01N21/59 , G01N21/64 , G01N21/65 , G01N2021/3155 , G01N2201/022 , G01N2201/061 , G01N2201/06186 , G01V8/12
Abstract: A light source and a method for its use in an optical sensor are provided, the light source including a resistively heated element. The light source includes a power circuit configured to provide a pulse width modulated voltage to the resistively heated element, the pulse width modulated voltage including: a duty cycle with a first voltage; and a pulse period including a period with a second voltage, wherein: the duty cycle, the first voltage, and the pulse period are selected so that the resistively heated element is heated to a first temperature; and the first temperature is selected to emit black body radiation in a continuum spectral range. Also provided is an optical sensor for determining a chemical composition including a light source as above.
Abstract translation: 提供了一种用于光学传感器的光源及其方法，该光源包括电阻加热元件。 光源包括被配置为向电阻加热元件提供脉宽调制电压的电源电路，所述脉宽调制电压包括：具有第一电压的占空比; 以及包括具有第二电压的周期的脉冲周期，其中：选择占空比，第一电压和脉冲周期，使得电阻加热元件被加热到第一温度; 并且选择第一温度以在连续光谱范围内发射黑体辐射。 还提供了一种用于确定包括如上所述的光源的化学成分的光学传感器。
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33.发明申请公开(公告)号：US20150247755A1
公开(公告)日：2015-09-03
申请号：US14712717
申请日：2015-05-14
Applicant: Halliburton Energy Services, Inc.
Inventor： Michael Pelletier , William Soltmann , David L. Perkins , Christopher M. Jones
CPC classification number: G01J1/08 , E21B47/102 , E21B49/08 , G01J3/0205 , G01J3/027 , G01J3/10 , G01J3/108 , G01J3/427 , G01J3/433 , G01J5/522 , G01N21/31 , G01N21/59 , G01N21/64 , G01N21/65 , G01N2021/3155 , G01N2201/022 , G01N2201/061 , G01N2201/06186 , G01V8/12
Abstract: A light source and a method for its use in an optical sensor are provided, the light source including a resistively heated element. The light source includes a power circuit configured to provide a pulse width modulated voltage to the resistively heated element, the pulse width modulated voltage including: a duty cycle with a first voltage; and a pulse period including a period with a second voltage, wherein: the duty cycle, the first voltage, and the pulse period are selected so that the resistively heated element is heated to a first temperature; and the first temperature is selected to emit black body radiation in a continuum spectral range. Also provided is an optical sensor for determining a chemical composition including a light source as above.
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公开(公告)号：US20140252251A1
公开(公告)日：2014-09-11
申请号：US14282022
申请日：2014-05-20
Applicant: Halliburton Energy Services, Inc.
Inventor： Ola Tunheim , Robert P. Freese , Laurence James Abney , Christopher M. Jones , James Robert MacLennan
CPC classification number: G01M3/38 , G01J3/02 , G01M3/005 , G01N21/17 , G01N21/27 , G01N21/31 , G01N21/85 , G01N21/954
Abstract: An example method includes introducing a movable inline inspection device into a pipeline, the movable inline inspection device having a housing that defines a conduit therein which provides fluid communication through the movable inline inspection device in the form of a bypass fluid, the conduit having one or more optical computing devices arranged thereon for monitoring the bypass fluid, wherein each optical computing device has at least one integrated computational element arranged therein, generating an output signal corresponding to a characteristic of the bypass fluid with at least one detector arranged within each optical computing device, receiving the output signal from each optical computing device with a signal processor communicably coupled to the at least one detector of each optical computing device, and determining with the signal processor the characteristic of the bypass fluid detected by each optical computing device.
Abstract translation: 一种示例性方法包括将可移动的在线检查装置引入到管道中，该可移动的在线检查装置具有限定其中的导管的壳体，其以旁路流体的形式通过可移动的在线检查装置提供流体连通，该导管具有一个或 布置在其上的用于监测旁路流体的更多光学计算装置，其中每个光学计算装置具有布置在其中的至少一个集成的计算元件，其中布置有每个光学计算装置内的至少一个检测器产生对应于旁路流体的特性的输出信号 通过可通信地耦合到每个光学计算设备的至少一个检测器的信号处理器接收来自每个光学计算设备的输出信号，以及利用信号处理器确定每个光学计算设备检测到的旁路流体的特性。
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公开(公告)号：US20130314709A1
公开(公告)日：2013-11-28
申请号：US13957177
申请日：2013-08-01
Applicant: Halliburton Energy Services, Inc.
Inventor： Christopher M. Jones , Louis W. Elrod
IPC: G01N21/27
CPC classification number: G01N21/27 , E21B47/102 , E21B49/08 , G01N21/15 , G01N21/3577 , G01N21/359 , G01N21/552 , G01N21/85 , G01N33/2823 , Y10T436/21
Abstract: Apparatus, systems, and methods may operate to receive interacted energy at an optical calculation device attached to a down hole housing to be deployed in a down hole environment. Further activities may include optically compressing data carried by the interacted energy into at least one orthogonal component, using the optical calculation device, sending a signal associated with the at least one orthogonal component to a remote surface computer, and determining a property of petroleum located in the down hole environment using the remote surface computer, based on the signal. The optical calculation device may comprise a multivariate optical element (MOE). Additional apparatus, systems, and methods are disclosed.
Abstract translation: 设备，系统和方法可以操作以在附接到将在井下环境中部署的井下壳体的光学计算装置处接收相互作用的能量。 进一步的活动可以包括使用光学计算装置将由相互作用的能量携带的数据光学压缩成至少一个正交分量，将与至少一个正交分量相关联的信号发送到远程表面计算机，以及确定位于 使用远程表面计算机的井下环境，基于信号。 光学计算装置可以包括多变量光学元件（MOE）。 公开了附加装置，系统和方法。
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Patent Agency Ranking
公开(公告)号：US11933931B2
公开(公告)日：2024-03-19
申请号：US16870198
申请日：2020-05-08
Applicant: Halliburton Energy Services, Inc.
Inventor： Dingding Chen , Bin Dai , Christopher M. Jones , Darren Gascooke , Tian He
IPC: G01V13/00 , E21B7/00 , E21B47/06 , E21B47/07 , E21B47/135 , E21B49/08 , G01D18/00 , G01N21/00 , G01V8/10
CPC classification number: G01V13/00 , E21B7/00 , E21B47/06 , E21B47/07 , E21B47/135 , E21B49/08 , G01D18/00 , G01N21/00 , G01V8/10
Abstract: A method includes obtaining a plurality of master sensor responses with a master sensor in a set of training fluids and obtaining node sensor responses in the set of training fluids. A linear correlation between a compensated master data set and a node data set is then found for a set of training fluids and generating node sensor responses in a tool parameter space from the compensated master data set on a set of application fluids. A reverse transformation is obtained based on the node sensor responses in a complete set of calibration fluids. The reverse transformation converts each node sensor response from a tool parameter space to the synthetic parameter space and uses transformed data as inputs of various fluid predictive models to obtain fluid characteristics. The method includes modifying operation parameters of a drilling or a well testing and sampling system according to the fluid characteristics.
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公开(公告)号：US10787904B2
公开(公告)日：2020-09-29
申请号：US16240993
申请日：2019-01-07
Applicant: HALLIBURTON ENERGY SERVICES, INC.
Inventor： Christopher M. Jones , Michael T. Pelletier , Mark Proett
Abstract: Interaction of adsorbing chemicals with a downhole tool presents inaccuracies in the adsorbing chemical measurement and analysis. The principles of the present disclosure provide a method and system of sampling fluids including an adsorbing chemical in a subterranean reservoir. One method may include modeling an interaction between the adsorbing chemical and a downhole tool, applying the model to a measurement of the adsorbing chemical, and adjusting the measurement in response to applying the model.
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38.发明申请公开(公告)号：US20190219728A1
公开(公告)日：2019-07-18
申请号：US16361592
申请日：2019-03-22
Applicant: Halliburton Energy Services, Inc.
Inventor： Christopher M. Jones , Michael T. Pelletier , Robert S. Atkinson, JR. , Songhua Chen
CPC classification number: G01V3/32 , B01L3/502715 , B01L2300/0654 , B01L2300/0816 , B01L2300/0864 , E21B49/081 , E21B2049/085 , G01N21/85 , G01N24/081 , G01N24/082 , G01N33/2823 , G01R33/302 , G01V3/14
Abstract: A method and microfluidic device to perform reservoir simulations using pressure-volume-temperature (“PVT”) analysis of wellbore fluids.
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公开(公告)号：US10175380B2
公开(公告)日：2019-01-08
申请号：US14772261
申请日：2013-04-18
Applicant: Halliburton Energy Services, Inc.
Inventor： Christopher M. Jones , Michael T. Pelletier , Robert S. Atkinson, Jr. , Songhua Chen
Abstract: A microfluidic device and method is described to parallelize a pressure-volume-temperature (“PVT”) analysis such that a portion of the pressure, temperature and volume analysis is performed separately from others. The resulting PVT data is then recombined statistically for a complete PVT analysis. The microfluidic device may also obtain compositional data of the fluid to perform an equation of state analysis or reservoir simulations.
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公开(公告)号：US20170102320A1
公开(公告)日：2017-04-13
申请号：US15385482
申请日：2016-12-20
Applicant: Halliburton Energy Services, Inc.
Inventor： Michael Pelletier , William Soltmann , David L. Perkins , Christopher M. Jones
CPC classification number: G01N21/255 , E21B47/102 , E21B49/08 , G01J3/0205 , G01J3/027 , G01J3/10 , G01J3/108 , G01J3/427 , G01J3/433 , G01J5/522 , G01N21/31 , G01N21/47 , G01N2201/061 , G01N2201/06186 , G01N2201/0696 , G01N2201/12 , G01V8/10 , H03K7/08 , H05B37/0209
Abstract: A light source and a method for its use in an optical sensor are provided, the light source including a resistively heated element. The light source includes a power circuit configured to provide a pulse width modulated voltage to the resistively heated element, the pulse width modulated voltage including: a duty cycle with a first voltage; and a pulse period including a period with a second voltage, wherein: the duty cycle, the first voltage, and the pulse period are selected so that the resistively heated element is heated to a first temperature; and the first temperature is selected to emit black body radiation in a continuum spectral range. Also provided is an optical sensor for determining a chemical composition including a light source as above.
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