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Patent Agency Ranking
公开(公告)号：US08849639B2
公开(公告)日：2014-09-30
申请号：US12884368
申请日：2010-09-17
Applicant: Alan Lee Brown , Simon David Bulman , Martin Crick , Gilles Mathieu , Russ Sagert , Peter Wardell-Yerburgh
Inventor： Alan Lee Brown , Simon David Bulman , Martin Crick , Gilles Mathieu , Russ Sagert , Peter Wardell-Yerburgh
IPC: G06G7/48
Abstract: An example system includes interconnected modeling modules that share knowledge to create a unified earth model dynamically representing a subsurface site. The system models and may simulate subsurface operations associated with, for example: hydrocarbon production and stimulation, natural gas storage, carbon capture and storage, aquifer maintenance, geothermal energy production, and in-situ leachable ore processing. The system integrates a reporting module, and also an economic module to evaluate cost versus benefit of each subsurface operation. A related example method for performing subsurface engineering includes generating a model of a subsurface site including a geological horizon, obtaining an offset relative to the geological horizon, and locating an operation based on the offset. When field data update the model in real time, positions of 3D objects and 3D surfaces are dynamically updated in the model, including the positions of the modeled operations.
Abstract translation: 示例系统包括互连的建模模块，其共享知识以创建动态表示地下站点的统一地球模型。 该系统模拟并可以模拟与例如：碳氢化合物生产和刺激，天然气储存，碳捕获和储存，含水层维护，地热能生产和原位可浸出的矿石加工相关的地下作业。 该系统集成了一个报告模块，也是一个经济模块，用于评估每个地下操作的成本与收益。 用于执行地下工程的相关示例性方法包括生成包括地质水平的地下站点的模型，获得相对于地质地平线的偏移，以及基于偏移定位操作。 当现场数据实时更新模型时，3D对象和3D曲面的位置将在模型中动态更新，包括建模操作的位置。
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公开(公告)号：US20110060572A1
公开(公告)日：2011-03-10
申请号：US12884368
申请日：2010-09-17
Applicant: Alan Lee BROWN , Simon David BULMAN , Martin CRICK , Gilles MATHIEU , Russ SAGERT , Peter WARDELL-YERBURGH
Inventor： Alan Lee BROWN , Simon David BULMAN , Martin CRICK , Gilles MATHIEU , Russ SAGERT , Peter WARDELL-YERBURGH
IPC: G06G7/48
Abstract: An example system includes interconnected modeling modules that share knowledge to create a unified earth model dynamically representing a subsurface site. The system models and may simulate subsurface operations associated with, for example: hydrocarbon production and stimulation, natural gas storage, carbon capture and storage, aquifer maintenance, geothermal energy production, and in-situ leachable ore processing. The system integrates a reporting module, and also an economic module to evaluate cost versus benefit of each subsurface operation. A related example method for performing subsurface engineering includes generating a model of a subsurface site including a geological horizon, obtaining an offset relative to the geological horizon, and locating an operation based on the offset. When field data update the model in real time, positions of 3D objects and 3D surfaces are dynamically updated in the model, including the positions of the modeled operations.
Abstract translation: 示例系统包括互连的建模模块，其共享知识以创建动态表示地下站点的统一的地球模型。 该系统模拟并可以模拟与例如：碳氢化合物生产和刺激，天然气储存，碳捕获和储存，含水层维护，地热能生产和原位可浸出的矿石加工相关的地下作业。 该系统集成了一个报告模块，也是一个经济模块，用于评估每个地下操作的成本与收益。 用于执行地下工程的相关示例性方法包括生成包括地质水平的地下站点的模型，获得相对于地质地平线的偏移，以及基于偏移定位操作。 当现场数据实时更新模型时，3D对象和3D曲面的位置将在模型中动态更新，包括建模操作的位置。
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公开(公告)号：US07767958B2
公开(公告)日：2010-08-03
申请号：US12043300
申请日：2008-03-06
Applicant: Martin Luling , Gilles Mathieu , Anthony Veneruso
Inventor： Martin Luling , Gilles Mathieu , Anthony Veneruso
CPC classification number: G01T1/185 , G01V5/04 , Y10S977/742
Abstract: A gamma-ray detector comprising: a housing having a window through which gamma rays can enter; the housing comprising; a two-dimensional array of electrically conducting carbon nanotubes, which act as a cathode, on a substrate; a metal plate electrode, which acts as an anode, positioned opposite the substrate so that there is a gap containing a gas between the electrode and the nanotubes; and a voltage source connected to the substrate and the electrode such that when in use the voltage between the substrate and the electrode is maintained below the arc-threshold voltage so that no electric current can flow through the gap between the nanotubes and the electrode; wherein the electrode and the substrate are arranged such that when a gamma ray enters the housing and hits one of the nanotubes a spark discharge is triggered between the nanotubes and the plate electrode creating an electrical current that can be measured.
Abstract translation: 一种伽马射线检测器，包括：壳体，具有可以进入伽马射线的窗口; 所述壳体包括： 用作阴极的导电碳纳米管的二维阵列; 用作阳极的金属板电极，与基板相对设置，使得在电极和纳米管之间存在包含气体的间隙; 以及连接到所述基板和所述电极的电压源，使得当在使用中时，所述基板和所述电极之间的电压被维持在所述电弧阈值电压以下，使得没有电流可以流过所述纳米管和所述电极之间的间隙; 其中所述电极和所述基底被布置成使得当伽马射线进入所述壳体并撞击所述纳米管中的一个时，在所述纳米管和所述平板电极之间触发火花放电，产生可以测量的电流。
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公开(公告)号：US5576255A
公开(公告)日：1996-11-19
申请号：US527552
申请日：1995-09-13
Applicant: Yvan Huard , Gilles Mathieu , Jay Aota
Inventor： Yvan Huard , Gilles Mathieu , Jay Aota
Abstract: Compositions for refractory materials and methods for providing the compositions are described. A synthetic forsterite-rich refractory sand composition includes a mixture. The mixture includes: a) a carbon bridging agent, the carbon bridging agent being present in the mixture in a proportion of from approximately 5 to approximately 15 percent by weight of the mixture; and b) a synthetic forsterite-rich sand, the synthetic forsterite-rich sand being free-flowing, having a MgO:SiO.sub.2 weight ratio of at least approximately 1.2, a specific gravity of approximately 3 g/cm.sup.3, a void volume of less than approximately 50 percent by volume of the synthetic forsterite-rich sand, and a fusion point of at least approximately 1610.degree. C., wherein i) at least approximately 50 percent by weight of the synthetic forsterite-rich sand is forsterite, and ii) from approximately 3 to approximately 27 percent by weight of the synthetic forsterite-rich sand is maghemite. The compositions and methods provide advantages in that the resulting refractory product have suitable characteristics with respect to size distribution, packing ability, thermal resistance and sintering properties for utilization as ladle sand or for similar refractory uses.
Abstract translation: 描述了用于耐火材料的组合物和用于提供组合物的方法。 合成的富含镁橄榄石的耐火砂组合物包括混合物。 混合物包括：a）碳桥连剂，碳桥连剂以混合物的约5至约15重量％的比例存在于混合物中; 和b）富含合成镁橄榄石的砂，合成的富含镁橄榄石的砂是自由流动的，具有至少约1.2的MgO:SiO 2重量比，约3g / cm 3的比重，空隙体积小于 约50体积％的合成富含镁橄榄石的砂和至少约1610℃的熔点，其中i）至少约50重量％的合成富含镁橄榄石的砂是镁橄榄石，和ii） 约3至约27％重量的合成镁橄榄石砂是磁赤铁矿。 组合物和方法提供的优点在于所得到的耐火产品在用作钢包砂或类似耐火材料用途的尺寸分布，包装能力，耐热性和烧结性能方面具有合适的特性。
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公开(公告)号：US5374593A
公开(公告)日：1994-12-20
申请号：US839508
申请日：1992-02-21
Applicant: Yvan Huard , Gilles Mathieu , Jay Aota
Inventor： Yvan Huard , Gilles Mathieu , Jay Aota
Abstract: A process for obtaining a synthetic refractory sand for use in steelmaking, said synthetic refractory sand being free-flowing, comprising at least 50% forsterite, having semi-angular and irregularly shaped grains, lenses and flat grains, a specific gravity of approximately 3 g/cm.sup.3, a void volume of less than approximately 50%, a coefficient of thermal expansion of approximately 1.09.times.10.sup.-5 and a fusion point of at least 1610.degree. C. including the steps of: (a) agglomerating a mixture comprising a particulate starting material selected from the group consisting of serpentine-containing asbestos tailings and an enstatite-containing product produced by calcining serpentine-containing asbestos tailings and from 10% to 25%, based on the total weight of mixture, of magnesium oxides or precursors of magnesium oxides with an aqueous binder solution to obtain agglomerates of said mixture; (b) calcining said agglomerates at a temperature of from 1200.degree. C. to 1500.degree. C. for from 1 to 2 hours; (c) recovering said synthetic refractory sand from the calcined agglomerates; and (d) crushing said synthetic refractory sand to a desired mesh size.
Abstract translation: 一种用于获得用于炼钢的合成耐火砂的方法，所述合成耐火砂自由流动，包括至少50％的镁橄榄石，具有半角和不规则形状的颗粒，透镜和扁平颗粒，比重为约3g / cm3，小于约50％的空隙体积，约1.09×10 -5的热膨胀系数和至少1610℃的熔点，包括以下步骤：（a）将包含颗粒起始物 选自蛇纹石的石棉尾矿的组合物和通过煅烧蛇纹石的石棉尾矿产生的含有顽火石的产品和基于混合物的总重量的10％至25％的氧化镁或镁氧化物的前体 与粘合剂水溶液一起获得所述混合物的附聚物; （b）在1200℃至1500℃的温度下煅烧所述附聚物1至2小时; （c）从煅烧附聚物回收所述合成耐火砂; 和（d）将所述合成耐火砂粉碎成所需的网眼尺寸。
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