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    • 31. 发明申请
    • HIGH PERMEABILITY FRAC PROPPANT
    • 高渗透率FRAC PROPPANT
    • WO2012135419A2
    • 2012-10-04
    • PCT/US2012/031081
    • 2012-03-29
    • BAKER HUGHES INCORPORATEDAGRAWAL, GauravCREWS, James, B.XU, Zhiyue
    • AGRAWAL, GauravCREWS, James, B.XU, Zhiyue
    • E21B43/26C01F5/00C01F7/00C01G9/00
    • E21B43/267C09K8/68C09K8/80C09K8/805
    • Disintegrative particles are designed to be blended with and pumped with typical proppant materials, e.g. sand, ceramics, bauxite, etc, into the fractures of a subterranean formation. With time and/or change in wellbore or environmental condition, these particles will either disintegrate partially or completely, in non-limiting examples, by contact with downhole fracturing fluid, formation water, or a stimulation fluid such as an acid or brine. Once disintegrated, the proppant pack within the fractures will lead to greater open space enabling higher conductivity and flow rates. The disintegrative particles may be made by compacting and/or sintering metal powder particles, for instance magnesium or other reactive metal or their alloys. Alternatively, particles coated with compacted and/or sintered nanometer-sized or micrometer sized coatings could also be designed where the coatings disintegrate faster or slower than the core in a changed downhole environment.
    • 设计崩解颗粒以与典型的支撑剂材料混合并泵送,例如, 沙子,陶瓷,铝土矿等进入地下岩层的裂缝。 随着时间和/或井筒或环境条件的变化,这些颗粒将在非限制性实例中通过与井下压裂液,地层水或增产流体如酸或盐水接触而部分或完全分解。 一旦解体,裂缝内的支撑剂填充物将导致更大的开放空间,从而实现更高的电导率和流速。 崩解颗粒可以通过压实和/或烧结金属粉末颗粒,例如镁或其它活性金属或它们的合金来制备。 或者,也可以设计涂覆有压实的和/或烧结的纳米尺寸或微米尺寸涂层的颗粒,其中涂层在变化的井下环境中分裂得比核心更快或更慢。
    • 38. 发明申请
    • COMPOSITE INFLOW CONTROL DEVICE
    • 复合流体控制装置
    • WO2013028456A2
    • 2013-02-28
    • PCT/US2012/051141
    • 2012-08-16
    • BAKER HUGHES INCORPORATEDAGRAWAL, GauravSADANA, Anil K.GARCIA, Luis A.
    • AGRAWAL, GauravSADANA, Anil K.GARCIA, Luis A.
    • E21B43/12E21B34/06
    • F16L55/02736E21B43/12E21B43/32F16L55/02745Y10T137/0318
    • A flow control device, including a flow path for a fluid therethrough; a geometry defining at least a portion of the flow path, the geometry operatively arranged to cause a pressure drop in the fluid thereacross; a material disposed along the flow path, the material having a surface energy less than that of an undesirable component of the fluid. A method of controlling inflow of an undesirable fluid including: receiving a fluid in a flow control device; and reducing an undesirable component of the fluid flowing out from the flow control device by directing the fluid along a flow path of the flow control device, the flow path at least partially defined by a geometry operatively arranged to cause a pressure drop in the fluid thereacross and at least partially defined by a material having a surface energy less than that of the undesirable component of the fluid.
    • 一种流量控制装置,包括用于流体的流路; 限定流路的至少一部分的几何形状,所述几何形状可操作地布置成导致其中的流体的压降; 沿着流动路径设置的材料,该材料的表面能小于流体的不期望的部件的表面能。 一种控制不期望流体的流入的方法,包括:在流量控制装置中接收流体; 并且通过沿着所述流量控制装置的流动路径引导所述流体来减少从所述流量控制装置流出的流体的不期望的部件,所述流动路径至少部分地由可操作地布置成导致流体中的压降的几何形状限定 并且至少部分地由表面能小于流体不期望的组分的表面能的材料限定。
    • 40. 发明申请
    • METHOD OF MAKING A NANOMATRIX POWDER METAL COMPACT
    • 制备纳米粉末金属粉末的方法
    • WO2011071908A2
    • 2011-06-16
    • PCT/US2010/059266
    • 2010-12-07
    • BAKER HUGHES INCORPORATEDXU, ZhiyueAGRAWAL, GauravSALINAS, Bobby
    • XU, ZhiyueAGRAWAL, GauravSALINAS, Bobby
    • B22F7/08B22F3/02B22F1/02
    • B22F1/025B22F1/02B22F3/04B22F3/172B22F2999/00C22C1/04C22C32/00C23C16/00B22F2202/15
    • A method of making a powder metal compact is disclosed. The method includes forming a coated metallic powder comprising a plurality of coated metallic powder particles having particle cores with nanoscale metallic coating layers disposed thereon, wherein the metallic coating layers have a chemical composition and the particle cores have a chemical composition that is different than the chemical composition of the metallic coating layers. The method also includes applying a predetermined temperature and a predetermined pressure to the coated powder particles sufficient to form a powder metal compact by solid-phase sintering of the nanoscale metallic coating layers of the plurality of coated powder particles to form a substantially-continuous, cellular nanomatrix of a nanomatrix material, a plurality of dispersed particles dispersed within the cellular nanomatrix and a solid-state bond layer extending throughout the cellular nanomatrix.
    • 公开了一种制造粉末金属压块的方法。 所述方法包括形成涂覆的金属粉末,所述涂覆的金属粉末包含多个涂覆的金属粉末颗粒,所述涂覆的金属粉末颗粒具有其上设置有纳米级金属涂层的颗粒芯,其中所述金属涂层具有化学组成,并且所述颗粒芯具有不同于所述化学品 金属涂层的组成。 该方法还包括将预定温度和预定压力施加到经涂覆的粉末颗粒,足以通过固相烧结多个经涂覆的粉末颗粒的纳米级金属涂层而形成粉末金属压块,以形成基本连续的细胞 纳米基体材料的纳米基体,分散在所述细胞纳米基体内的多个分散颗粒和延伸贯穿所述细胞纳米基体的固态结合层。