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    • 1. 发明申请
    • Method of Improving Waterflood Performance using Barrier Fractures and Inflow Control Devices
    • 使用障碍断裂和流入控制装置提高注水性能的方法
    • US20120160484A1
    • 2012-06-28
    • US13337072
    • 2011-12-24
    • Leopoldo SierraLoyd E. EastMohamed Y. Soliman
    • Leopoldo SierraLoyd E. EastMohamed Y. Soliman
    • E21B43/26E21B34/00
    • E21B43/16E21B43/12E21B43/305
    • Methods including providing a substantially horizontal wellbore having at least one productive interval within a hydrocarbon reservoir and forming at least one non-conductive transverse fracture in the reservoir along the substantially horizontal wellbore. An injection well is also provided. A fluid is injected into the reservoir through the injection well to displace hydrocarbons within the reservoir toward a production portion of the substantially horizontal wellbore. Hydrocarbons are drained from the reservoir into at least one production interval of the substantially horizontal wellbore. Fluid production from the at least one production interval into the substantially horizontal wellbore flows through an inflow control device that can restrict the fluid flow. A non-conductive transverse fracture can form a barrier within the reservoir to divert injected fluids to increase sweep efficiency and reduce the influx of injected fluids into the production interval.
    • 方法包括提供在烃储存器内具有至少一个生产间隔的基本上水平的井筒,并沿着基本上水平的井眼在储层中形成至少一个不导电的横向断裂。 还提供了注射井。 通过注入井将流体注入储存器,以将贮存器内的烃置换为基本上水平的井筒的生产部分。 碳氢化合物从储层排出到基本上水平的井眼的至少一个生产间隔。 从至少一个生产间隔到基本上水平的井筒的流体生产流过可限制流体流动的流入控制装置。 不导电的横向断裂可以在储层内形成阻挡层,以转移注入的流体,以提高扫掠效率并减少注入流体进入生产区间。
    • 3. 发明授权
    • Method of improving waterflood performance using barrier fractures and inflow control devices
    • 使用屏障和流入控制装置提高注水性能的方法
    • US08307893B2
    • 2012-11-13
    • US13337072
    • 2011-12-24
    • Leopoldo SierraLoyd E. East, Jr.Mohamed Y. Soliman
    • Leopoldo SierraLoyd E. East, Jr.Mohamed Y. Soliman
    • E21B34/06E21B43/16E21B43/26E21B47/10
    • E21B43/16E21B43/12E21B43/305
    • The present invention is directed to a method of hydrocarbon production from a hydrocarbon reservoir. The method includes providing a substantially horizontal wellbore having at least one productive interval within a hydrocarbon reservoir and forming at least one non-conductive transverse fracture in the reservoir along the substantially horizontal wellbore. An injection well is also provided. A fluid is injected into the reservoir through the injection well to displace hydrocarbons within the reservoir toward a production portion of the substantially horizontal wellbore. Fluid production from the at least one production interval into the substantially horizontal wellbore flows through an inflow control device that can restrict the fluid flow. A non-conductive transverse fracture can form a barrier within the reservoir to divert injected fluids to increase sweep efficiency and reduce the influx of injected fluids into the production interval.
    • 本发明涉及一种来自烃储层的烃生产方法。 该方法包括提供基本上水平的井筒,其在烃储层内具有至少一个生产间隔,并沿着基本上水平的井眼在储层中形成至少一个非导电横向断裂。 还提供了注射井。 通过注入井将流体注入储存器,以将贮存器内的烃置换为基本上水平的井筒的生产部分。 从至少一个生产间隔到基本上水平的井筒的流体生产流过可限制流体流动的流入控制装置。 不导电的横向断裂可以在储层内形成阻挡层,以转移注入的流体,以提高扫掠效率并减少注入流体进入生产区间。
    • 7. 发明授权
    • Method of improving waterflood performance using barrier fractures and inflow control devices
    • 使用屏障和流入控制装置提高注水性能的方法
    • US08104535B2
    • 2012-01-31
    • US12583441
    • 2009-08-20
    • Leopoldo SierraLoyd E. East, Jr.Mohamed Y. Soliman
    • Leopoldo SierraLoyd E. East, Jr.Mohamed Y. Soliman
    • E21B34/06E21B43/16E21B43/26E21B47/10
    • E21B43/16E21B43/12E21B43/305
    • The present invention is directed to a method of hydrocarbon production from a hydrocarbon reservoir. The method includes providing a substantially horizontal wellbore having at least one productive interval within a hydrocarbon reservoir and forming at least one non-conductive transverse fracture in the reservoir along the substantially horizontal wellbore. An injection well is also provided. A fluid is injected into the reservoir through the injection well to displace hydrocarbons within the reservoir toward a production portion of the substantially horizontal wellbore. Hydrocarbons are drained from the reservoir into at least one production interval of the substantially horizontal wellbore. Fluid production from the at least one production interval into the substantially horizontal wellbore flows through an inflow control device that can restrict the fluid flow. A non-conductive transverse fracture can form a barrier within the reservoir to divert injected fluids to increase sweep efficiency and reduce the influx of injected fluids into the production interval.
    • 本发明涉及一种来自烃储层的烃生产方法。 该方法包括提供基本上水平的井筒,其在烃储层内具有至少一个生产间隔,并沿着基本上水平的井眼在储层中形成至少一个非导电横向断裂。 还提供了注射井。 通过注入井将流体注入储存器,以将贮存器内的烃置换为基本上水平的井筒的生产部分。 碳氢化合物从储层排出到基本上水平的井眼的至少一个生产间隔。 从至少一个生产间隔到基本上水平的井筒的流体生产流过可限制流体流动的流入控制装置。 不导电的横向断裂可以在储层内形成阻挡层,以转移注入的流体,以提高扫掠效率并减少注入流体进入生产区间。
    • 10. 发明申请
    • AMMONIUM HALIDE AS GELATION RETARDER FOR CROSSLINKABLE POLYMER COMPOSITIONS
    • 氨基甲酸酯作为可交联聚合物组合物的凝胶阻滞剂
    • US20110214857A1
    • 2011-09-08
    • US12717020
    • 2010-03-03
    • GHAITHAN A. AL-MUNTASHERILeopoldo SierraAlbert Bakhtyarov
    • GHAITHAN A. AL-MUNTASHERILeopoldo SierraAlbert Bakhtyarov
    • E21B43/22C09K8/50C09K8/588
    • E21B33/138C09K8/5083C09K8/512C09K8/882C09K8/887
    • According to one embodiment, a treatment fluid for a well includes: (a) a water-soluble polymer, wherein the water-soluble polymer comprises a polymer of at least one non-acidic ethylenically unsaturated polar monomer; (b) an organic crosslinker capable of crosslinking the water-soluble polymer; (c) an ammonium halide; and (d) water. According to another embodiment, a method for blocking the permeability of a portion of a subterranean formation penetrated by a wellbore is provided, the method including the steps of: (a) selecting the portion of the subterranean formation to be treated, wherein the bottomhole temperature of the portion of the subterranean formation is equal to or greater than 250° F. (121° C.); (b) selecting estimated treatment conditions, wherein the estimated treatment conditions comprise temperature over a treatment time; (c) forming a treatment fluid that is a crosslinkable polymer composition comprising: (i) a water-soluble polymer, wherein the water-soluble polymer comprises a polymer of at least one non-acidic ethylenically unsaturated polar monomer; (ii) an organic crosslinker capable of crosslinking the water-soluble polymer; (iii) an ammonium halide; and (iv) water; (d) selecting the water-soluble polymer, the crosslinker, the ammonium halide, and the water, and the proportions thereof, such that the gelation time of the treatment fluid is at least 2 hours when tested under the estimated treatment conditions; and (e) injecting the treatment fluid through the wellbore into the portion of the subterranean formation.
    • 根据一个实施方案,用于井的处理流体包括:(a)水溶性聚合物,其中所述水溶性聚合物包含至少一种非酸性烯属不饱和极性单体的聚合物; (b)能够交联水溶性聚合物的有机交联剂; (c)卤化铵; 和(d)水。 根据另一个实施例,提供了一种用于阻挡由井眼穿透的地下地层的一部分渗透性的方法,所述方法包括以下步骤:(a)选择待处理的地层的部分,其中井底温度 的地层的部分等于或大于250°F(121℃); (b)选择估计的治疗条件,其中估计的治疗条件包括治疗时间以上的温度; (c)形成作为可交联聚合物组合物的处理流体,其包含:(i)水溶性聚合物,其中所述水溶性聚合物包含至少一种非酸性烯属不饱和极性单体的聚合物; (ii)能够交联水溶性聚合物的有机交联剂; (iii)卤化铵; 和(iv)水; (d)选择水溶性聚合物,交联剂,卤化铵和水及其比例,使得在估计的处理条件下进行试验时,处理液的凝胶化时间至少为2小时; 和(e)将处理流体通过井眼注入到地层的部分中。