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    • 25. 发明申请
    • HYDRAULIC FRACTURING COMPOSITION, METHOD FOR MAKING AND USE OF SAME
    • 液压破碎组合物,其制造和使用方法
    • US20140332214A1
    • 2014-11-13
    • US14169698
    • 2014-01-31
    • Jia ZhouQi QuScott G. NelsonHong SunLeiming Li
    • Jia ZhouQi QuScott G. NelsonHong SunLeiming Li
    • C09K8/80E21B43/267
    • E21B43/267C09K8/685C09K2208/26
    • A hydraulic fracturing composition includes: a superabsorbent polymer in an expanded state; a plurality of proppant particles disposed in the superabsorbent polymer; an additive comprising a surfactant, a viscose polymer, or a combination thereof, and a fluid to expand the superabsorbent polymer into the expanded state. A process for disposing a plurality of proppant particles in a fracture comprises: disposing a hydraulic fracturing composition in a downhole environment; forming a fracture; disposing the hydraulic fracturing composition in the fracture; breaking the superabsorbent polymer after forming the fracture; and releasing the plurality of proppant particles from superabsorbent polymer. The process also comprises injecting a proppant-free fluid and a proppant-containing fluid in an alternating order into a subterranean formation.
    • 水力压裂组合物包括:膨胀状态的超吸收性聚合物; 设置在超吸收性聚合物中的多个支撑剂颗粒; 包含表面活性剂,粘胶聚合物或其组合的添加剂以及将超吸收性聚合物膨胀成膨胀状态的流体。 在断裂中配置多个支撑剂颗粒的方法包括:在井下环境中设置水硬性压裂组合物; 形成骨折; 将水力压裂组合物置于裂缝中; 在形成断裂之后破坏超吸收性聚合物; 并从超吸收聚合物中释放多个支撑剂颗粒。 该方法还包括将不含支撑剂的流体和含支撑剂的流体以交替顺序注入到地层中。
    • 26. 发明申请
    • HYDRAULIC FRACTURING COMPOSITION, METHOD FOR MAKING AND USE OF SAME
    • 液压破碎组合物,其制造和使用方法
    • US20140332213A1
    • 2014-11-13
    • US13888457
    • 2013-05-07
    • Jia ZhouHong SunQi QuMichael Guerin
    • Jia ZhouHong SunQi QuMichael Guerin
    • C09K8/80
    • C09K8/805C09K8/685
    • A hydraulic fracturing composition includes: a superabsorbent polymer in an expanded state and configured to break in response to a breaking condition; a plurality of proppant particles disposed in the superabsorbent polymer prior to release of the plurality of proppant particles from the superabsorbent polymer in response to breaking the superabsorbent polymer; and a fluid to expand the superabsorbent polymer into the expanded state. The hydraulic fracturing composition can be made by contacting a superabsorbent polymer with a fluid to expand the superabsorbent polymer into an expanded state; and disposing a plurality of proppant particles in the superabsorbent polymer to make the hydraulic fracturing composition. A process for disposing a plurality of proppant particles in a fracture comprises: disposing a hydraulic fracturing composition in a downhole environment; forming a fracture in the downhole environment; disposing the hydraulic fracturing composition in the fracture; breaking the superabsorbent polymer after forming the fracture; and releasing the plurality of proppant particles from superabsorbent polymer to dispose the plurality of proppant particles in the fracture.
    • 水力压裂组合物包括:膨胀状态的超吸收性聚合物,其构造成响应于断裂条件而断裂; 在响应于破坏超吸收性聚合物之前,从超吸收性聚合物释放多个支撑剂颗粒之前,将多个支撑剂颗粒设置在超吸收聚合物中; 以及将超吸收性聚合物膨胀成膨胀状态的流体。 水解压裂组合物可以通过使超吸收性聚合物与流体接触来制造,以将超吸收性聚合物膨胀成膨胀状态; 并将多个支撑剂颗粒设置在超吸收聚合物中以制造水力压裂组合物。 在断裂中配置多个支撑剂颗粒的方法包括:在井下环境中设置水硬性压裂组合物; 在井下环境中形成裂缝; 将水力压裂组合物置于裂缝中; 在形成断裂之后破坏超吸收性聚合物; 并且从超吸收性聚合物中释放多个支撑剂颗粒以将多个支撑剂颗粒置于断裂中。
    • 27. 发明申请
    • METHOD AND DEVICE FOR IMPLEMETING ORIGINAL CALLIGRAPHY OF HANDWRITING
    • 用于实施手写原件的方法和装置
    • US20140055428A1
    • 2014-02-27
    • US13981083
    • 2012-01-18
    • Xueping ZouJia ZhouGuoying Du
    • Xueping ZouJia ZhouGuoying Du
    • G06F3/0354
    • G06F3/03545G06F3/04883G06T11/203
    • Provided are a method and device for implementing the original calligraphy of handwriting. The method comprises: carrying out a real time sampling of a contact to obtain position information about the sampling point and the pen width at the sampling point; determining a central line of the stroke determined by adjacent sampling points; determining position information about a key point of the corresponding stroke according to the central line and the pen width at the sampling point; dividing the key point of the stroke into groups to determine the type thereof; generating a calligraphy outline of the corresponding stroke by drawing an arc and/or a line according to the type of the key point and the position information about the same; and finally filling the outline for displaying. The displayed handwriting trace has the same calligraphy of handwriting as characters written on paper.
    • 提供了一种用于实现原始书法书法的方法和装置。 该方法包括:对接触点进行实时取样以获取关于取样点的位置信息和采样点的笔宽度; 确定由相邻采样点确定的行程的中心线; 根据中心线和采样点的笔宽确定关于相应笔画的关键点的位置信息; 将笔画的关键点划分成组,以确定其类型; 通过根据关键点的类型和关于该关键点的位置信息绘制圆弧和/或线来产生相应笔画的书法轮廓; 最后填写轮廓显示。 显示的手写痕迹具有与写在纸上的字符相同的笔迹书法。
    • 29. 发明申请
    • Using polymer elasticity to scale up the lab characteristics to field application of friction reducers
    • 使用聚合物弹性将实验室特性扩大到摩擦减速器的现场应用
    • US20130041587A1
    • 2013-02-14
    • US13562030
    • 2012-07-30
    • Ahmed Mohamed Mohamed GomaaJia ZhouHong SunQi Qu
    • Ahmed Mohamed Mohamed GomaaJia ZhouHong SunQi Qu
    • G06F19/00
    • E21B43/26
    • A method of determining the friction pressure drop gradient of at least one drag-reducing polymer passing through a tubing in an underground well includes determining the pressure drop, velocity and relaxation time of the drag-reducing polymer as it passes through a length of small diameter straight tubing at multiple injection rates in the lab. For each data set, the variables x=(Relaxation Time×Velocity) and y=(Pressure Drop Gradient×Diameter4×(1+De2)1.5) are calculated, wherein De is the Deborah number. Each x, y data point is plotted on a graph where the x-axis represents (Relaxation Time×Velocity) and the y-axis represents (Pressure Drop Gradient×Diameter4×(1+De2)1.5), wherein the curve formed by the plotted data approximates the x and y data for the drag-reducing polymer as it passes through the tubing in the underground well.
    • 确定穿过地下井中的管道的至少一种减阻聚合物的摩擦压降梯度的方法包括确定减阻聚合物在通过一小段直径时的压降,速度和松弛时间 在实验室中以多次注射速率的直管。 对于每个数据集,计算变量x =(松弛时间×速度)和y =(压降梯度×直径4×(1 + De2)1.5),其中De是Deborah数。 每个x,y数据点绘制在x轴表示(松弛时间×速度)和y轴表示(压降梯度×直径4×(1 + De2)1.5)的曲线图上,其中由 当减阻聚合物通过地下井的管道时,绘图数据近似于减阻聚合物的x和y数据。