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    • 3. 发明授权
    • Method for simulating fractional multi-phase/multi-component flow through porous media
    • 用于模拟通过多孔介质的分数多相/多组分流动的方法
    • US09183326B2
    • 2015-11-10
    • US13539543
    • 2012-07-02
    • Giuseppe de PriscoJonas ToelkeYaoming Mu
    • Giuseppe de PriscoJonas ToelkeYaoming Mu
    • G06G7/57G01N15/08G06F17/50
    • G06F17/5009G06F2217/16
    • A method for computing or estimating fractional, multi-phase/multi-component flow through a porous medium employing a 3D digital representation of a porous medium and a computational fluid dynamics method to calculate flow rates, pressures, saturations, internal velocity vectors and other flow parameters is described. The method employs a unique method of introducing non-wetting and wetting fluids into the pores at the inlet face of the 3D digital representation of a porous medium and a novel process control application to achieve quasi-steady state flow at low inlet concentrations of non-wetting fluid. In addition, the method of the present invention reduces the time required to simulate to complete the fluid dynamic calculations. The resulting values of flow of non-wetting fluid, wetting fluid, saturation, and other parameters are used to generate plots of relative permeability imbibition and drainage curves. Computerized systems and programs for performing the method are also provided.
    • 一种用于计算或估计使用多孔介质的3D数字表示的多孔介质的分数,多相/多分量流和计算流体动力学方法来计算流速,压力,饱和度,内部速度矢量和其它流量的方法 描述参数。 该方法采用将非润湿和润湿流体引入多孔介质的3D数字表示的入口面的孔中的独特方法和新颖的过程控制应用,以在低入口浓度的非稳态流动下实现准稳态, 润湿液。 此外,本发明的方法减少了模拟以完成流体动力学计算所需的时间。 使用非润湿流体,湿润流体,饱和度等参数的结果值产生相对渗透率吸收和排水曲线图。 还提供了用于执行该方法的计算机化系统和程序。
    • 4. 发明授权
    • System and method for mapping component bases using a chemical process simulator
    • 使用化学过程模拟器映射组件库的系统和方法
    • US09075402B2
    • 2015-07-07
    • US13043353
    • 2011-03-08
    • Brian M. Devereux
    • Brian M. Devereux
    • G06G7/57G06G7/58G05B17/02G06F17/50
    • G05B17/02G06F17/5009
    • A method includes identifying a simulated input flow stream associated with a chemical processing facility. The input flow stream includes an input component basis with multiple components having one or more properties that differ. The method also includes converting the input flow stream into a simulated output flow stream, which includes an output component basis that differs from the input component basis and comprises a single, active group of oil components and zero or more pure components. A pure component property of a pure component in the input flow stream could be combined with an oil component property of an oil component in the input flow stream. A pure component property of a pure component in the input flow stream could also be transferred to a pure component in the output flow stream without combination. An oil component property of an oil component in the input flow stream could further be mapped to an oil component property of the single output oil component.
    • 一种方法包括识别与化学处理设施相关联的模拟输入流。 输入流流包括具有不同的一个或多个属性的具有多个部件的输入部件基准。 该方法还包括将输入流流转换成模拟输出流,其包括与输入分量基础不同的输出分量基础,并且包括单个活动组油分量和零个或多个纯分量。 输入流中的纯组分的纯组分特性可以与输入流中的油组分的油分量特性组合。 输入流中的纯组分的纯组分属性也可以转移到输出流中的纯组分而不进行组合。 输入流中的油分量的油分量特性可以进一步映射到单输出油分量的油分量特性。
    • 8. 发明申请
    • METHODS AND SYSTEMS FOR COMPUTING NOTIONAL SOURCE SIGNATURES FROM NEAR-FIELD MEASUREMENTS AND MODELED NOTIONAL SIGNATURES
    • 用于计算来自近场测量和建模声明信号的有声源信号的方法和系统
    • US20130325427A1
    • 2013-12-05
    • US13483327
    • 2012-05-30
    • Stian HegnaFabien Julliard
    • Stian HegnaFabien Julliard
    • G06G7/57
    • G01V1/13G01V1/006G01V2210/50
    • Methods and systems for computing notional source signatures from modeled notional signatures and measured near-field signatures are described. Modeled near-field signatures are calculated from the modeled notional signatures. Low weights are assigned to parts of a source pressure wavefield spectrum where signatures are less reliable and higher weights are assigned to parts of the source pressure wavefield spectrum where signatures are more reliable. The part of the spectrum where both sets of signatures are reliable can be used for quality control and for comparing the measured near-field signatures to modeled near-field signatures. When there are uncertainties in the input parameters to the modeling, the input parameters can be scaled to minimize the differences between measured and modeled near-field signatures. Resultant near-field signatures are computed by a weighted summation of the modeled and measured near-field signatures, and notional source signatures are calculated from the resultant near-field signatures.
    • 描述了从建模的名义签名和测量的近场签名计算名义源签名的方法和系统。 建模的近场签名是从建模的名义签名计算的。 低权重被分配给源压力波场谱的部分,其中签名不太可靠,并且较高的权重被分配给源压力波场谱的部分,其中签名更可靠。 两组签名可靠的频谱部分可用于质量控制和将测量的近场签名与建模的近场签名进行比较。 当建模的输入参数有不确定性时,可以缩放输入参数以最小化测量和建模的近场签名之间的差异。 通过建模和测量的近场签名的加权求和计算得到的近场签名,并从所得到的近场签名计算名义源签名。
    • 9. 发明申请
    • MODELING FRACTURING FLUID LEAK-OFF
    • 建模破裂液体泄漏
    • US20130204588A1
    • 2013-08-08
    • US13366582
    • 2012-02-06
    • Dylan M. Copeland
    • Dylan M. Copeland
    • G06G7/57G06F17/13
    • E21B43/26
    • The present disclosure relates to modeling the flow of fracturing fluid in a subterranean formation. Fluid flow within the reservoir media in a subterranean formation is modeled by a reservoir block flow model. Fluid flow within a fracture network in the reservoir is modeled by a fracture network flow model. Fluid flow between the fracture network and the reservoir media is modeled by an interface flow model. Output data are generated based on coupling the fracture network flow model, the reservoir block flow model, and the interface flow model. The output data represent characteristics of fracturing fluid leak-off from the fracture network into the reservoir media.
    • 本公开涉及对地层中压裂液的流动进行建模。 地层中储层介质内的流体流动由储层流动模型建模。 储层裂缝网络内的流体流动由断裂网络流模型建模。 裂缝网络和储层介质之间的流体流动由界面流模型建模。 输出数据是基于断裂网络流模型,储层块流模型和界面流模型的耦合产生的。 输出数据表示压裂液从裂缝网络泄漏到储层介质中的特征。