合作客户/
拜耳公司 |
同济大学 |
联合大学 |
美国保洁 |
美国强生 |
瑞士罗氏 |
相关新闻Info
推荐新闻Info
-
> 无机粒子对TPAE界面张力、发泡、抗收缩行为的影响(四)
> 无机粒子对TPAE界面张力、发泡、抗收缩行为的影响(三)
> 无机粒子对TPAE界面张力、发泡、抗收缩行为的影响(二)
> 无机粒子对TPAE界面张力、发泡、抗收缩行为的影响(一)
> 弱碱三元采出液油水界面动态界面张力、强度、等特性研究
> 植保无人机喷头和喷雾助剂对药液表面张力、雾滴密度、覆盖率的影响(二)
> 植保无人机喷头和喷雾助剂对药液表面张力、雾滴密度、覆盖率的影响(一)
> 无人机喷雾作业下荔枝叶片上的表面张力、接触角及雾滴沉积特性
> 不同界面张力-润湿性组合的渗吸液体系对于化学渗吸效果的影响规律
> 基于界面张力弛豫法探讨疏水改性聚合物与石油酸和沥青质间的相互作用(二)
植物油中N-酰基氨基酸表面活性剂的界面活性和聚集行为——结论、致谢!
来源:Unisense 浏览 1046 次 发布时间:2021-09-09
结论
N-酰基氨基酸表面活性剂是一类"绿色"表面活性剂,可替代传统表面活性剂。本文利用植物油和相应的氨基酸直接合成了六种N-酰基氨基酸表面活性剂。它们的结构通过IR和MS确认。获得了表面活性剂的表征参数,包括CMC、γCMC、Γmax、Amin、ΔGads和ΔGmic。有趣的是,聚集行为很大程度上取决于氨基酸残基和疏水链的结构。蓖麻油衍生物尾部羟基的存在倾向于自组装成球状囊泡,而头部带有羟基的酰基丝氨酸衍生物形成管状囊泡。
致谢
作者感谢国家重点研发计划(2017YFB0308701)、国家自然科学基金(21676003)、北京市科技项目(D17110500190000)和北京工商大学青年基金对本工作的支持学者基金(PXM2018_014213_000033)。
附录A.补充资料与本文相关的补充资料可在网络版doi中找到:https://doi.org/10.1016/j.colsurfa.2018.09.042。
References
[1]R.Marchant,I.M.Banat,Biosurfactants:a sustainable replacement for chemical surfactants?Biotechnol.Lett 34(2012)1597–1605.
[2]R.Bordes,K.Holmberg,Amino acid-based surfactants–do they deserve more attention?Adv.Colloid Interface Sci.222(2015)79–91.
[3]L.Pérez,A.Pinazo,R.Pons,M.Infante,Gemini surfactants from natural amino acids,Adv.Colloid Interface Sci.205(2014)134–155.
[4]J.Xia,Protein-Based Surfactants:Synthesis:Physicochemical Properties,and Applications,CRC Press,2001.
[5]M.Husmann,K.Menting,H.Rieckert,H.Ring,J.Weise,W.Zinser,Secondary fatty acid amide derivatives:amino-acid based surfactants for household,industrial and personal care applications,SOFW J.130(2004)22–29.
[6]D.Yea,S.Lee,S.Jo,H.Yu,J.Lim,Preparation of environmentally friendly amino acid‐based anionic surfactants and characterization of their interfacial properties for detergent products formulation,J.Surfact.Deterg.21(2018)541–552.
[7]M.Takehara,Properties and applications of amino acid based surfactants,Colloids Surf.38(1989)149–167.
[8]G.O.Reznik,P.Vishwanath,M.A.Pynn,J.M.Sitnik,J.J.Todd,J.Wu,Y.Jiang,B.G.Keenan,A.B.Castle,R.F.Haskell,Use of sustainable chemistry to produce an acyl amino acid surfactant,Appl.Microbiol.Biotechnol.86(2010)1387–1397.
[9]J.Xia,Y.Xia,I.A.Nnanna,Structure-function relationship of acyl amino acid surfactants:surface activity and antimicrobial properties,J.Agric.Food Chem.43
(1995)867–871.
[10]N.Joondan,S.Jhaumeer-Laulloo,P.Caumul,M.Akerman,Synthesis,physicochemical,and biological activities of novel N‐acyl tyrosine monomeric and Gemini surfactants in single and SDS/CTAB–mixed micellar system,J.Phys.Org.Chem.
(2017)30.
[11]S.Roy,J.Dey,Effect of hydrogen-bonding interactions on the self-assembly formation of sodium N-(11-acrylamidoundecanoyl)-L-serinate,L-asparaginate,and Lglutaminate in aqueous solution,J.Colloid Interface Sci.307(2007)229–234.
[12]E.Jungermann,J.Gerecht,I.Krems,The preparation of long chain N-acylamino acids,J.Am.Chem.Soc.78(1956)172–174.
[13]G.J.Zhang,C.X.Chai,T.T.Tan,B.C.Xu,Y.W.Zhou,H.Q.Liu,L.Zhao,N.Wang,Green synthesis and surface properties of acyl glycine surfactants derived from vegetable oils,Tenside Surfact.Deterg.53(2016)284–290.
[14]R.Wilson,B.Van Schie,D.Howes,Overview of the preparation,use and biological studies on polyglycerol polyricinoleate(PGPR),Food Chem.Toxicol.36(1998)
711–718.
[15]A.J.Kelly,J.Kavanagh,J.Thomas,Castor oil,bath and/or enema for cervical priming and induction of labour,Cochrane Database System.Rev.(2001)CD003099-CD003099.
[16]A.Thomas,Fats and fatty oils,Ullmann's Encyclopedia of Industrial Chemistry,(2000).
[17]B.K.Sharma,A.Adhvaryu,Z.Liu,S.Z.Erhan,Chemical modification of vegetable oils for lubricant applications,J.Am.Oil Chem.Soc.83(2006)129–136.
[18]Y.Xu,H.Liu,B.Xu,G.Zhang,Synthesis,characterization,and surface properties of amide amine oxides based on natural vegetable oil,J.Dispers.Sci.Technol.39
(2018)585–593.
[19]F.M.Menger,L.Shi,S.A.Rizvi,Re-evaluating the Gibbs analysis of surface tension at the air/water interface,J.Am.Chem.Soc.131(2009)10380–10381.
[20]F.M.Menger,L.Shi,S.A.Rizvi,Additional support for a revised Gibbs analysis,Langmuir 26(2009)1588–1589.
[21]J.N.Israelachvili,D.J.Mitchell,B.W.Ninham,Theory of self-assembly of hydrocarbon amphiphiles into micelles and bilayers,J.Chem.Soc.Faraday Trans.2:Mol.Chem.Phys.72(1976)1525–1568.
[22]J.N.Israelachvili,Intermolecular and Surface Forces(With Applications to Colloidal and Biological Systems),Academic Press,London,Orlando,San Diego,New York,Toronto,Montreal,Sydney,Tokyo,1985.
[23]A.Mohanty,J.Dey,Effect of the headgroup structure on the aggregation behavior and stability of self-assemblies of sodium N-[4-(n-dodecyloxy)benzoyl]-l-aminoacidates in water,Langmuir Acs J.Surf.Colloids 23(2007)1033–1040.
[24]A.Mohanty,J.Dey,Spontaneous formation of vesicles and chiral self-assemblies of sodium N-(4-dodecyloxybenzoyl)-L-valinate in water,Langmuir Acs J.Surf.Colloids 20(2004)8452–8459.
[25]A.Ghosh,J.Dey,Effect of hydrogen bonding on the physicochemical properties and bilayer self-assembly formation of N-(2-hydroxydodecyl)-L-alanine
植物油中N-酰基氨基酸表面活性剂的界面活性和聚集行为——摘要、简介
植物油中N-酰基氨基酸表面活性剂的界面活性和聚集行为——材料和方法