測試流體流動的方法和裝置 METHOD AND APPARATUS FOR FLUID FLOW TESTING
    87.
    发明专利
    測試流體流動的方法和裝置 METHOD AND APPARATUS FOR FLUID FLOW TESTING 审中-公开
    测试流体流动的方法和设备 METHOD AND APPARATUS FOR FLUID FLOW TESTING

    公开(公告)号:TW200516240A

    公开(公告)日:2005-05-16

    申请号:TW093116464

    申请日:2004-06-08

    IPC: G01N

    CPC classification number: G01M10/00

    Abstract: 本發明大致上有關用於在流體流動內測量結構之流體動態性質之測試裝置及方法論。一具體實施例包含一種流體誘導運動之測試裝置,該測試裝置包含一適於在流體中固持測試本體之測試牽引機。該裝置可包含以下元件之任何一種:一致動器,其適於在該測試本體上產生一力量;一亂流產生器,其位於由該測試本體向上動向之流體中,並適於越過該流體-測試本體介面產生具均勻之亂流強度之一亂流場,該亂流場包含主控漩渦狀結構,該漩渦狀結構之軸心大約平行於該測試本體之縱軸;或一測試本體調整器,其適於相對該流體動向於四或更多增量中調整該測試本體,藉此能夠使待測試之測試本體之多數航向反向朝著該流體之動向。本發明亦有關使用該測試裝置及方法論設計及建造近海結構及使用所設計之近海結構生產碳化氫資源。

    Abstract in simplified Chinese: 本发明大致上有关用于在流体流动内测量结构之流体动态性质之测试设备及方法论。一具体实施例包含一种流体诱导运动之测试设备,该测试设备包含一适于在流体中固持测试本体之测试牵引机。该设备可包含以下组件之任何一种:一致动器,其适于在该测试本体上产生一力量;一乱流产生器,其位于由该测试本体向上动向之流体中,并适于越过该流体-测试本体界面产生具均匀之乱流强度之一乱流场,该乱流场包含主控漩涡状结构,该漩涡状结构之轴心大约平行于该测试本体之纵轴;或一测试本体调整器,其适于相对该流体动向于四或更多增量中调整该测试本体,借此能够使待测试之测试本体之多数航向反向朝着该流体之动向。本发明亦有关使用该测试设备及方法论设计及建造近海结构及使用所设计之近海结构生产碳化氢资源。

    Solids removal using solvent blends comprising a disulfide solvent

    公开(公告)号:US12281257B2

    公开(公告)日:2025-04-22

    申请号:US18256359

    申请日:2021-10-11

    Abstract: Solids dissolution may be promoted using a solvent blend comprising a disulfide solvent, particularly additional solids present in combination with elemental sulfur deposits. The solvent blends may comprise at least one disulfide solvent, at least one amine solvent, at least one ketone solvent, at least one ester solvent, and optionally water. Solids dissolution methods may comprise: identifying one or more solids in addition to elemental sulfur to be contacted by the solvent blend; adjusting a composition of the solvent blend to afford selectivity for dissolution of at least a portion of the one or more solids; and contacting the solvent blend with elemental sulfur and the one or more solids to promote at least partial dissolution thereof.

    CLASSIFYING GEOLOGIC FEATURES IN SEISMIC DATA THROUGH IMAGE ANALYSIS

    公开(公告)号:US20230213671A1

    公开(公告)日:2023-07-06

    申请号:US18000732

    申请日:2021-06-09

    CPC classification number: G01V1/301 G06N3/08

    Abstract: Aspects of the technology described herein identify geologic features within seismic data using modern computer analysis. An initial step is the development of training data for the machine classifier. The training data comprises an image of seismic data paired with a label identifying points of interest that the classifier should identify within raw data. Once the training data is generated, a classifier can be trained to identify areas of interest in unlabeled seismic images. The classifier can take the form of a deep neural network, such as a U-net. Aspects of the technology described herein utilize a deep neural network architecture that is optimized to detect broad and flat features in seismic images that may go undetected by typical neural networks in use. The architecture can include a group of layers that perform aspect ratio compression and simultaneous comparison of images across multiple aspect ratio scales.

    Continuous Thermal Compression of Hydrogen
    90.
    发明公开

    公开(公告)号:US20230202836A1

    公开(公告)日:2023-06-29

    申请号:US18006221

    申请日:2021-05-26

    Inventor: Marcel Staedter

    CPC classification number: C01B3/0073

    Abstract: A continuous thermal hydrogen compression system, and methods of thermally compressing hydrogen, are disclosed. A hydrogenation module accepts a hydrogen gas stream to be absorbed or adsorbed to a lean carrier stream through heat removal, thereby producing a heat output and a rich carrier stream containing absorbed or adsorbed hydrogen. A pump, connected to an output of the hydrogenation module, increases the pressure of the rich carrier stream to produce a pressurized rich carrier stream. A dehydrogenation module separates, via an addition of heat, a pressurized hydrogen gas stream from the pressurized rich carrier stream to produce a lean carrier stream. A pressure reducing device reduces the pressure of the lean carrier stream before it is returned to the hydrogenation module. The carrier stream is cycled continuously between the hydrogenation module and the dehydrogenation module.

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