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·1466·                            精细化工   FINE CHEMICALS                                  第 36 卷

            的矿化度下老化 30 d,其表观黏度仍可达 94.6 mPa·s;                      copolymer for enhanced oil recovery in harsh reservoir condition[J].
            在 15000 mg/L NaCl、2000 mg/L MgCl 2 和 2000 mg/L         Journal of Industrial & Engineering Chemistry, 2016, 37(3): 216-223.
            CaCl 2 溶液中,其表观黏度分别为 77.8、72.4 和                    [11]  Lowe  A  B,  Mccormick  C  L.  Synthesis  and  solution  properties of
                                                                   zwitterionic polymers[J]. Chemical Reviews, 2002, 102(11): 4177-4189.
            68.6 mPa·s。表明共聚物 AADM 具有优异的增黏、
                                                               [12]  Ye T, Song Y, Zheng Q. Salt response and rheological behavior of
            抗老化、抗剪切和耐温抗盐性能。
                                                                   acrylamide-sulfobetaine  copolymer[J].  Colloid  &  Polymer  Science,
                (3)在岩心驱替实验中,2000  mg/L 的共聚物                        2016, 294(2): 389-397.
            溶液在模拟油藏温度为 70 ℃,总矿化度为 9170 mg/L                    [13]  Ye Lin (叶林), Huang Ronghua (黄荣华). Synthesis and studies on
            的条件下,能够将采收率提高 7.72%。表明共聚物                              the solution properties of AM-AMPS-DMDA hydrophobic ampholytic
            AADM 能够满足高温高矿化度的油藏条件,具有潜                               copolymer[J].  Polymer  Materials  Science  and  Engineering  (高分子
            在的应用前景。                                                材料科学与工程), 1998, 14(3): 67-70.
                                                               [14]  Gou Shaohua (苟绍华), Fei Yumei (费玉梅), Zhang Qin (张勤), et
            参考文献:                                                  al. Synthesis and properties of a zwitterionic copolymer containing
                                                                   phosphate group[J]. Fine Chemicals (精细化工), 2018, 35(1): 141-148.
            [1]   Wever D A Z, Picchioni F, Broekhuis A A. Polymers for enhanced
                                                               [15]  Ma  X,  Zhu  Z,  Shi  W,  et al.  Synthesis  and  application  of  a  novel
                 oil  recovery:  A  paradigm  for  structure-property  relationship  in
                                                                   betaine-type copolymer as fluid loss additive for water-based drilling
                 aqueous  solution[J].  Progress  in  Polymer  Science,  2011,  36(11):
                                                                   fluid[J]. Colloid & Polymerence, 2017, 295(1): 1-14.
                 1558-1628.
                                                               [16]  Wang Lin (王琳), Yang Xiaohua (杨小华), Lin Yongxue (林永学),
            [2]   Kamal  M  S,  Sultan  A  S,  Almubaiyedh  U  A,  et al.  Review  on
                                                                   et al. The synthesis and evaluation of a new zwitterionic copolymer
                 polymer  flooding:  Rheology,  adsorption,  stability,  and  field
                                                                   (AM/DEPS)[J].  Petroleum  Drilling  Techniques  (石油钻探技术),
                 applications of various polymer systems[J]. Polymer Reviews, 2015,
                                                                   2016, (5): 72-78.
                 21(3): 1-40.
                                                               [17]  Ren  B,  Gao  Y,  Lu  L,  et al.  Aggregates  of  alginates  binding  with
            [3]   Li S, Gou S, Zhou L, et al. Prominent temperature-response and salt
                                                                   surfactants  of  single  and  twin  alkyl  chains  in  aqueous  solutions:
                 irritation  from  self-assemblies  of  polyzwitterion-sodium  lauryl
                                                                   Fluorescence  and  dynamic  light  scattering  studies[J].  Carbohydrate
                 sulfonate[J]. Journal of Molecular Liquids, 2018, 253(1): 305-313.
                                                                   Polymers, 2006, 66(2): 266-273.
            [4]   Pu W  F,  Yang Y,  Wei  B,  et al.  The  potential  of  a
                                                               [18]  Smith G L, Mccormick C L. Rheological and photophysical studies
                 β-cyclodextrin/adamantane  modified  copolymer  in  enhancing  oil   of  pH-responsive  terpolymers  containing  hydrophobic  twin-tailed
                 recovery through host-guest interactions[J]. Industrial & Engineering   acrylamide monomers[J]. Macromolecules, 2001, 34(16): 5579-5586.
                 Chemistry Research, 2016, 55(31): 8679-8689.   [19]  Guo Haopeng (郭浩鹏), Gao Baojiao (高保娇), Zhang Yan (章艳),
            [5]   Gou  S,  He  Y,  Zhou  L,  et al.  An  anti-biodegradable  hydrophobic   et al.  Preparing  HAPAM  containing  twin  tail-type  acrylamide  in
                 sulfonate-based acrylamide copolymer containing 2,4-dichlorophenoxy   newmicellar polymerization system and relationship between itschain
                 for  enhanced  oil  recovery[J].  New  Journal  of  Chemistry,  2015,   structure  and  hydrophobic  associativity[J].  Journal  of  Functional
                 39(12): 9265-9274.                                Polymers (功能高分子学报), 2008, 21(2): 117-122.
            [6]   Jha P K, Mahto V, Saxena V K. Study the effects of xanthan gum   [20]  Bakshi M S, Kaura A, Mahajan R K. Effect of temperature on the
                 and  aluminium  stearate  on  the  properties  of  oil-in-water  emulsion   micellar  properties  of  polyoxyethylene  glycol  ethers  and  twin  tail
                 drilling fluids[J]. Arabian Journal for Science & Engineering, 2016,   alkylammonium surfactants[J]. Colloids & Surfaces A Physicochemical
                 41(1): 143-153.                                   & Engineering Aspects, 2005, 262(1): 168-174.
            [7]   Ghannam  M  T, Selim M Y E,  Zekri  A  Y,  et al.  Experimental   [21]  Zhu  Z,  Kang  W,  Sarsenbekuly  B,  et al.  Preparation  and  solution
                 investigation of the yield stress measurements for xanthan solutions   performance  for  the  amphiphilic  polymers  with  different  hydrophobic
                 and crude oil-xanthan emulsions[J]. Liquid Fuels Technology, 2016,   groups[J].  Journal  of  Applied  Polymer  Science,  2017,  134(20):
                 34(6): 546-554.                                   44744-44753.
            [8]   Romero-Zerón  B  W  L.  The  evaluation  of  a  technological  trend in   [22]  Deng Limin (邓利民), Li Shiwei (李世伟), Hou Yingtian (侯映天),
                 polymer  flooding  for  heavy  oil  recovery[J].  Liquid  Fuels  Technology,   et al. Preparation and study of a sulfite salt copolymer[J]. Chemical
                 2014, 32(19): 2396-2404.                          Research and Application (化学研究与应用), 2018, 30(4): 557-564.
            [9]   Zhu D, Bai B, Hou J. Polymer gel systems for water management in   [23]  The Quality and Technology Supervision Bureau (质量技术监督局).
                 high-temperature petroleum reservoirs: A chemical review[J]. Energy   Determination for limiting viscosity number of polyacrylamide (聚丙
                 & Fuels, 2017, 31(12): 13063-13087.               烯酰胺特性粘数测定方法):  GB/T  12005.  1—1989[S].  Beijing:
            [10]  Pu  W  F,  Liu  R,  Peng  Q,  et al.  Amphiphilically  modified  chitosan   Standards Press of China (中国标准出版社), 2005.
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