Page 224 - 《精细化工》2023年第9期
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·2072·                            精细化工   FINE CHEMICALS                                 第 40 卷

            3   结论                                                 2019.
                                                               [9]   HE S (何松). Study on the adaptability of viscoelastic surfactants to
                                                                   oil displacement in medium  and  low permeability  reservoirs[D].
                (1)制备了一种表面活性聚合物驱油剂,该驱                              Chengdu: Southwest Petroleum University (西南石油大学), 2015.
                                                               [10]  YANG F (杨菲), GUO Y J (郭拥军), ZHANG X M (张新民), et al.
            油剂具有相对分子质量低、抗盐、抗吸附、降低油                                 Enhanced  oil  recovery  technology  of  alkaline/surfactant/
            水界面张力以及超强的乳化性能等优点。此外,该                                 hydrophobically  associating polyacrylamide flooding  after  polymer
                                                                   flooding[J]. Acta Petrolei Sinica (石油学报), 2014, 35(5): 908-913.
            聚合物的水溶液具有较高的表观黏度,在乳化原油                             [11]  DRUETTA P, PICCHIONI F. Surfactant-polymer interactions in a
                                                                   combined enhanced oil recovery flooding[J]. Energies, 2020, 13(24):
            提高驱油效率的同时还能调控油水流度比提高波及                                 6520.
            体积,具有一剂多效的作用,在提高中低渗油藏采                             [12]  LI J R, LIU W D, SUN L H, et  al. Effect of emulsification on
                                                                   surfactant partitioning in surfactant-polymer flooding[J]. Journal of
            收率领域具有较好的应用潜力;                                         Surfactants & Detergents, 2019, 22(6): 1387-1394.
                (2)评价了表面活性聚合物驱油剂 PAS 的增稠、                      [13]  SOUTHWICK  J G, VANBATENBURG D W,  SVEC  Y, et al.
                                                                   Ammonia as  alkali for alkaline/surfactant/polymer floods[J]. SPE
            抗盐、降低界面张力、乳化以及抗吸附性能。相同                                 Journal, 2016, 21(1): 10-21.
                                                               [14]  LIU Z Y, CHENG H J , LI Y Y, et al. Experimental investigation of
            质量浓度时,PAS 的增黏性和抗盐性均优于 HPAM                             synergy of components in surfactant/polymer flooding using
            和 APS,降低油水界面张力的能力也优于 HPAM。                             three-dimensional core model[J]. Transport in Porous Media, 2019,
                                                                   126(2): 317-335.
            质量浓度为 1000 mg/L 时具备较强的乳化性能,其                       [15]  WANG Y  F, LI Z  Y, DING  M  C,  et al. Performance of a
            与原油形成的乳液 120 min 析水率仅为 5.0%,远低                         good-emulsification-oriented surfactant-polymer system in emulsifying
                                                                   and recovering heavy oil[J]. Energy Science & Engineering, 2020,
            于 HPAM 的 100%以及 APS 的 70.0%,并且在高含                      8(2): 353-365.
                                                               [16]  LI J (李娟). Synthesis and properties of water-soluble polymer
            水、高矿化度条件下依然有较好的乳化性能。3 次                                viscosity reducers for heavy oil[D]. Jinan: Shandong University (山
            吸附后表观黏度保留率达 114.11%,且依然具备较                             东大学), 2019.
                                                               [17]  ZHOU J Z (周继柱), SHI W L (时武龙), FU Z H (付增华), et al.
            好的乳化性能,展现出良好的抗吸附性;                                     Synthesis and properties of a water-soluble amphiphilic polymer
                (3)通过注入实验和室内驱油实验模拟实际驱                              viscosity water-soluble amphiphilic polymer viscosity reducer for
                                                                   heavy oil with temperature and salt resistance[J]. Applied Chemical
            油过程,评价了 PAS 的注入性和提高采收率的能力。                             Industry (应用化工), 2014, 43(10): 1843-1846.
                                                               [18]  ZHAO H, KANG W L,  YANG H  B,  et al. Emulsification and
            结果表明,质量浓度为 1000 mg/L 的 PAS 溶液在渗                        stabilization mechanism of  crude oil emulsion by surfactant
                           2
            透率为 0.025  μm 的岩心中注入压力为 1.02 MPa,                      synergistic amphiphilic polymer system[J]. Colloids and Surfaces A:
                                                                   Physicochemical and Engineering Aspects, 2021, 609: 125726.
            注入性良好;在低渗条件下,PAS 驱在水驱基础上                           [19]  LI  Q, WANG X D,  LI  Q Y,  et al. New amphiphilic polymer with
            提高采收率达 19.02%,超过 HPAM 的 14.02%,与                       emulsifying capability for extra heavy crude oil[J]. Industrial &
                                                                   Engineering Chemistry Research, 2018, 57(49): 17013-17023.
            APS 的 19.60%相当。且该体系为单一聚合物体系,                       [20]  FEI D  T (费东涛), GUO J X (郭继香), SUN J F (孙建芳),  et al.
                                                                   Synthesis and  performance  evaluation of an amphiphilic polymer
            具有配注工艺简单、用量低等优点。                                       viscosity reducer for heavy oil[J]. Fine Chemicals (精细化工), 2022,
                 由于 PAS 大分子的结构特点,降低油水界面张力                          39(5): 1072-1080.
                                                               [21]  RAFFA P, BROEKHUIS A A, PICCHIONI F. Polymeric surfactants
            的能力依然较 APS 差。因此,进一步提高表面活性聚                             for enhanced oil recovery: A review[J]. Journal of Petroleum Science
            合物降低油水界面张力的能力是下一步研究的重点。                                and Engineering, 2016, 145(2): 723-733.
                                                               [22]  XU X G, OUYANG J, WANG Y Y, et al. Experimental investigation
                                                                   using an acrylamide-based polymer with emulsifying capability for
            参考文献:                                                  enhanced oil recovery: A preliminary study[J]. Journal of Industrial
                                                                   and Engineering Chemistry, 2018, 57: 134-142.
            [1]   LIU B (刘冰), CHEN Z M (陈志明), CAI Y T (蔡雨桐). Review of
                 research and development status of low permeability reservoir[J].   [23]  LIU P, ZHANG S, YANG N, et al. A novel surface active polymer oil
                 Inner  Mongolia Petrochemical Industry (内蒙古石油化工) 2013,   displacement agent[J]. Petroleum Exploration and Development,
                 39(1): 123-125.                                   2012, 39(5): 619-623.
            [2]  XIE H(谢华). Evaluation of polymer properties in medium and low   [24]  CO L,  ZHANG Z  J, MA Q S,  et al. Evaluation  of  functionalized
                 permeability reservoir[D]. Qingdao: China University of Petroleum  polymeric surfactants for EOR applications in the Illinois Basin[J].
                 〔中国石油大学(华东)〕, 2016.                               Journal of Petroleum Science and Engineering, 2015, 134: 167-175.
            [3]   LI X (李欣), XIE  B Q (谢彬强), ZHAO L  (赵林). Synthesis and   [25]  RAN F J (冉法江). Study on chemical structure of polymer surfactant
                 evaluation of new heat-resistant and salt-tolerant polymer viscosifier   for enhanced oil recovery[J]. Chemical Engineer (化学工程师), 2013,
                 [J]. Petrochemical Technology (石油化工), 2018, 47(6): 595-599.   27(11): 19-22.
            [4]   LI Z (李哲), KANG W L (康万利), WU H R (吴海荣), et al. Low   [26]  ZHANG F F (张粉粉). Study on synthesis of water-soluble copolymer
                 permeability reservoir flooding system preparation and performance   and their  viscosity reduction properties to heavy oil[D]. Jinan:
                 study based on spontaneous emulsification[C]//16th Colloidal and   Shandong University (山东大学), 2021.
                 Interfacial Chemistry Conference of Chinese Chemical Society (中国  [27]  NEGI H, FAUJDAR E, SALEHEEN  R. Viscosity  modification of
                 化学会第十六届胶体与界面化学会议), 2017: 20-21.                   heavy crude oil  by using a chitosan-based cationic surfactant[J].
            [5]   MIN J L (闵敬丽). Study on synthesis and properties of temperature   Energy & Fuels, 2020, 34(4): 4474-4483.
                 resistant and salt tolerance polyacrylamide copolymers[D]. Jinan:   [28]  CHEN H (陈洪), HAN L  J  (韩利娟), XU P (徐鹏), et al. The
                 Shandong University (山东大学), 2017.                 thickening mechanism study of hydrophobically modified polyacrylamide
            [6]   XIE K (谢坤), LI Q (李强), YUAN S W (苑盛旺), et al. Adaptation   [J]. Acta Physico-Chimica Sinica (物理化学学报), 2003, 19(11):
                 between the hydrophobically associating polymer and Bohai reservoir   1020-1024.
                 heterogeneity[J]. Oilfield Chemistry (油田化学), 2015, (1): 102-107.   [29]  GUO L, TAM K C, JENKINS R D. Effects of salt on the intrinsic
            [7]   HE J C (何江川), LIAO G Z (廖广志), WANG Z M  (王正茂).   viscosity of model alkali-soluble associative polymers[J]. Macromolecular
                 Oilfield development strategy and replacement techniques[J]. Acta   Chemistry and Physics, 1998, 199(6): 1175-1184.
                 Petrolei Sinica (石油学报), 2012, (3): 519-525.   [30]  ZHANG H Y, DONG M Z, ZHAO S Q. Experimental study of the
            [8]   LI W (李巍). Research on oil  displacement effect of modified   interaction between NaOH, surfactant, and polymer in reducing court
                 nano-SiO 2 hyperbranched polymer in low permeability reservoir[D].   heavy oil/brine interfacial tension[J]. Energy & Fuels, 2012, 26(6):
                 Fushun: Liaoning  Petrochemical University (辽宁石油化工大学),   3644-3650.
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