Page 199 - 《精细化工》2020年第4期
P. 199

第 4 期                    王艳萍,等:  耐温耐盐乳化降黏剂的结构设计及其构效关系                                    ·833·


                 Chemicals (精细化工), 2005, 22(8): 578-582.           Press (华南理工大学出版社), 2006: 264-267.
            [11]  Shengli Petroleum Administration of Sinopec Group (中国石化集  [19]  SHAKIL H S M, TALEY F L, SAHZAD K M, et al. Synthesis and
                 团胜利石油管理局),  Q/SH  1020  2193—2013,  General  technical   performance  evaluation  of  betaine  type  zwitterionic  surfactants
                 conditions of high temperature heavy oil viscosity reducing agent   containing different degrees of ethoxylation[J]. Journal of Molecular
                 [S].  Dongying:  Production  Technology  Research  Institute  of   Structure, 2018, 1173(1): 983-989.
                 Shengli  Oilfield Branch (胜利油田分公司采油工艺研究院), 2013:   [20]  YANG X P (杨晓鹏), GUO D H (郭东红), XIN H C (辛浩川), et al.
                 1-9.                                              Study  on  interfacial  activity  of  aliphatic  alcohol  polyoxyethylene
            [12]  LI  Y  X  (李远喜).  Calculation  and  application  of  HLB  for  ionic   ether sulfonate NNA series at high temperature and high salt[J]. Oil
                 surfactants  by  configuration-  fragment  method[D].  Xiangtan:   Field Chemistry (油田化学), 2009, (4): 75-77.
                 Xiangtan University (湘潭大学), 2008.             [21]  QIN Bing(秦冰). Study on the relationship between the structure and
            [13]  National Petroleum and Chemical Industry Bureau (国家石油和化学  performance of the heavy oil emulsified viscosity-reducing agent[D].
                 工业局),  SY/T5370—1999,  Measurement  method  of  surface  and   Beijing: China Institute of Petroleum and Chemical Sciences (石油
                 interfacial tension[S]. Beijing: Standards Press of China (中国标准  化工科学研究院), 2001.
                 出版社), 1999: 4-5.                              [22]  KUMARR  S,  MAHTO  V.  Use  of  a  novel  surfactant  to  prepare
            [14]  WANG Y F (王业飞),  ZHAO  F  L  (赵福麟).  Salt  tolerance  of   oil-in-water  emulsion  of  an  Indian  heavy  crude  oil  for  pipeline
                 nonionic  anionic  surfactants[J].  Oil  Field  Chemistry  (油田化学),   transportation[J]. Energy & Fuel, 2017, 31(11): 12010-12020.
                 1999, (4): 47-51.                             [23]  DEHGHAN  A  A,  MASHI  M,  AYATOLLAHI  S,  et al.  Interfacial
            [15]  PAL  N,  SAXENA  N,  DIVYA  LAXMI  K  V,  et al.  Interfacial   tension  and  wettability  change  phenomena  during  alkali  surfactant
                 behaviour, wettability alteration and emulsification characteristics of   interactions  with  acidic  heavy  crude  oil[J].  Energy  &  Fuels,  2015,
                 a  novel  surfactant:  Implications  for  enhanced  oil  recovery[J].   29(2): 649-658.
                 Chemical Engineering Science, 2018, 187(1): 200-212.     [24]  YU  S  H  (于世虎). The synthesis and properties  of the viscosity-
            [16]  HUSSAIN S M S, KAMAL M S, FOGANG L T, et al. Synthesis and   reducing  agent  for  heavy  oil[D].  Qiandao:  China  University  of
                 physicochemical  investigation  of  betaine  type  polyoxyethylene   Petroleum (中国石油大学:  华东), 2014.
                 zwitterionic  surfactants  containing  different  ionic  headgroups[J].   [25]  CHEN  Y  L  (陈艳玲),  HU  J  (胡江),  ZHANG  Q  L  (张巧莲),  et al.
                 Journal of Molecular Structure, 2019, 1178(1): 83-88.     Study on the mechanism of the chemical viscosity- lowering of the
            [17]  PAL  N,  SAXENA  A,  MANDAL,  et al.  Studies  on  the   heavy oil of the ken-type heavy oil[J]. Geoscience (地球科学), 1998,
                 physicochemical  properties  of  synthesized  tailor-made  gemini   (6): 62-66.
                 surfactants  for  application  in  enhanced  oil  recovery[J].  Journal  of   [26]  LI M R (李美蓉), XIANG H (向浩), MA J F (马济飞), et al. Study
                 Molecular Liquids, 2018, 258(1): 211-224.         on the mechanism of emulsification and viscosity reduction of super
            [18]  ZHANG  L  J  (章莉娟),  ZHENG  Z  (郑忠). Colloid and interface   heavy  oil[J].  Journal  of  Fuel  Chemistry  (燃料化学学报),  2006,
                 chemistry[M].  Guangzhou:  South  China  University  of  Technology   34(2): 49-52.


            (上接第 820 页)                                            on  water-repellent  and  flame-retardant  composite  function  of
                                                                   silicon-phosphorus-nitrogen  flame  retardant  for  cotton  fabric[J].
            [11]  WANG W, WEN P Y, ZHAN J, et al. Synthesis of a novel charring   Journal of Cellulose Science and Technology (纤维素科学与技术),
                 agent containing pentaerythritol and triazine structure and its intumescent   2019, 27(2): 59-65.
                 flame retardant performance for polypropylene[J]. Polymer Degradation   [19]  LI X H, CHEN H Y, WANG W T, et al. Synthesis of a formaldehyde-
                 and Stability, 2017, 144: 454-463.                free  phosphorus-nitrogen  flame  retardant  with  multiple  reactive
            [12]  NGUYEN T M D, CHANG S C, CONDON B, et al. Synthesis of a   groups and its application in cotton fabrics[J]. Polymer Degradation
                 novel flame retardant containing phosphorus-nitrogen and its comparison   and Stability, 2015, 120: 193-202.
                 for cotton fabric[J]. Fibers and Polymers, 2012, 13(8): 963-970.   [20]  LIU Z Y, XU M J, WANG Q, et al. A novel durable flame retardant
            [13]  HE P S, CHEN X Y, ZHU P, et al. Preparation and flame retardancy   cotton fabric produced by surface chemical grafting of phosphorus-
                 of  reactive  flame  retardant  for  cotton  fabric[J].  Journal  of  Thermal   and nitrogen-containing compounds[J]. Cellulose, 2017, 24(9): 4069-
                 Analysis and Calorimetry, 2018, 132(3): 1771-1781.   4081.
            [14]  NGUYEN T M, CHANG S C, CONDON B, et al. Structural effect   [21]  CHEN  X  L,  WANG  W  D,  JIAO  C  M.  A  recycled  environmental
                 of  phosphoramidate  derivatives  on  the  thermal  and  flame  retardant   friendly flame retardant by modifying para-aramid fiber with phosphorus
                 behaviors  of  treated  cotton  cellulose[J].  Industrial  &  Engineering   acid for thermoplastic polyurethane elastomer[J]. Journal of Hazardous
                 Chemistry Research, 2013, 52(13): 4715-4724.      Materials, 2017, 331: 257-264.
            [15]  ROSACE  G,  CASTELLANO  A,  TROVATO  V,  et al.  Thermal  and   [22]  KIM N K, LIN R J T, BHATTACHARYYA D. Effects of wool fibres,
                 flame  retardant  behaviour  of  cotton  fabrics  treated  with  a  novel   ammonium polyphosphate and polymer viscosity on the flammability
                 nitrogen-containing carboxyl-functionalized organophosphorus system[J].   and  mechanical  performance  of  PP/wool  composites[J].  Polymer
                 Carbohydrate Polymers, 2018, 196: 348-358.        Degradation and Stability, 2015, 119: 167-177.
            [16]  ALONGI  J,  CARLETTO  R  A,  BOSCO  F,  et al.  Caseins  and   [23]  ZHANG F X, GAO W W, JIA Y L, et al. A concise water-solvent
                 hydrophobins  as  novel  green  flame  retardants  for  cotton  fabrics[J].   synthesis of highly effective, durable, and eco-friendly flame-retardant
                 Polymer Degradation and Stability, 2014, 99: 111-117.   coating on cotton fabrics[J]. Carbohydrate Polymers, 2018, 199: 256-265.
            [17]  KIM S J, JANG J. Synergistic UV-curable flame-retardant finish of   [24]  WANG D F, ZHONG L, ZHANG C, et al. A novel reactive phosphorous
                 cotton using comonomers of vinylphosphonic acid and acrylamide[J].   flame retardant for cotton fabrics with durable flame retardancy and
                 Fibers and Polymers, 2017, 18(12): 2328-2333.     high  whiteness  due  to  self-buffering[J].  Cellulose,  2018,  25(10):
            [18]  MA X B (马兴博), ZHU P (朱平), CHEN X Y (陈晓燕), et al. Study   5479-5497.
   194   195   196   197   198   199   200   201   202   203   204