中文字幕日本人妻久久久免费_中文字幕久久久人妻无码_中文字幕在线观看_非洲黑人吊巨大vs亚洲女

芬蘭Kibron專注表面張力儀測量技術,快速精準測量動靜態表面張力

熱線:021-66110810,66110819,66110690,13564362870 Email: info@vizai.cn

合作客戶/

拜耳公司.jpg

拜耳公司

同濟大學

同濟大學

聯合大學.jpg

聯合大學

寶潔公司

美國保潔

強生=

美國強生

瑞士羅氏

瑞士羅氏

當前位置首頁 > 新聞中心

陽離子、陰離子的界面潤濕行為——結論、致謝!

來源:上海謂載(zai) 瀏覽 722 次 發布時間:2021-12-13

4.結論


上(shang)述討論表(biao)(biao)(biao)明(ming),溶(rong)(rong)(rong)(rong)菌酶(mei)的(de)(de)存(cun)在(zai)(zai)(zai)(zai)改變了所有三種表(biao)(biao)(biao)面(mian)(mian)活(huo)(huo)性(xing)(xing)劑(ji)的(de)(de)cmc,在(zai)(zai)(zai)(zai)純陽離(li)子(zi)(即CTAB)和陰離(li)子(zi)(即SDBS)表(biao)(biao)(biao)面(mian)(mian)活(huo)(huo)性(xing)(xing)劑(ji)以及溶(rong)(rong)(rong)(rong)菌酶(mei)存(cun)在(zai)(zai)(zai)(zai)的(de)(de)情況下,cmc值隨溫度升(sheng)高而增(zeng)加。 在(zai)(zai)(zai)(zai)非離(li)子(zi)表(biao)(biao)(biao)面(mian)(mian)活(huo)(huo)性(xing)(xing)劑(ji)(即TX-100)的(de)(de)情況下,cmc值降低。 如果使用離(li)子(zi)表(biao)(biao)(biao)面(mian)(mian)活(huo)(huo)性(xing)(xing)劑(ji),與CTAB相比,SDBS的(de)(de)Γmax值下降更多,這(zhe)表(biao)(biao)(biao)明(ming)SDBS和溶(rong)(rong)(rong)(rong)菌酶(mei)之間形成的(de)(de)復合物比CTAB和溶(rong)(rong)(rong)(rong)菌酶(mei)更有利(li)。 Amin值以與Γmax相反的(de)(de)趨勢(shi)增(zeng)加。TX-100的(de)(de)Gmin值較(jiao)小,這(zhe)表(biao)(biao)(biao)明(ming)TX-100在(zai)(zai)(zai)(zai)溶(rong)(rong)(rong)(rong)菌酶(mei)存(cun)在(zai)(zai)(zai)(zai)的(de)(de)情況下強烈吸附在(zai)(zai)(zai)(zai)表(biao)(biao)(biao)面(mian)(mian)上(shang)。 關于接觸角的(de)(de)結(jie)果表(biao)(biao)(biao)明(ming),在(zai)(zai)(zai)(zai)溶(rong)(rong)(rong)(rong)菌酶(mei)存(cun)在(zai)(zai)(zai)(zai)下,非離(li)子(zi)表(biao)(biao)(biao)面(mian)(mian)活(huo)(huo)性(xing)(xing)劑(ji)(TX-100)比離(li)子(zi)表(biao)(biao)(biao)面(mian)(mian)活(huo)(huo)性(xing)(xing)劑(ji)(SDBS/CTAB)對PMMA的(de)(de)潤濕性(xing)(xing)更強。


致謝


Rajan Patel博士非常(chang)感謝(xie)印(yin)度新德里科(ke)學與工(gong)程研(yan)究委(wei)員會(hui)和(he)大學資(zi)(zi)助委(wei)員會(hui)的(de)財政支持,批(pi)準(zhun)(zhun)令編號分別為SB/EMEQ-097/2013和(he)F.39-841/2010(SR)。 Abbul Bashar Khan博士還感謝(xie)新德里科(ke)學和(he)工(gong)程研(yan)究委(wei)員會(hui)(SEB)提(ti)供了第號批(pi)準(zhun)(zhun)令(SB/FT/CS-031/2013)的(de)研(yan)究資(zi)(zi)助。


工具書類


[1] Lee-Huang S., Huang P., Sun Y. et al.: Proc. Nat. Acad. Sci. U.S.A., 1999, 96, 2678.


[2] Jash C., Payghan P., Ghoshal N. et al.: J. Phys. Chem. B, 2014, 118, 13077.


[3] Huang S., Maiorov V., Huang P. et al.: Biochemistry, 2005, 44, 4648.


[4] Derdea M., Naua F., Guerin-Dubiarda C. et al.: Biochim. Biophys. Acta, 2015, 1848, 1065.


[5] Carrillo W., Garcia-Ruiz A., Recio I. et al.: J. Food Protect., 2014, 10, 1732.


[6] Goddard E.: Interactions of Surfactants with Polymers and Proteins. CRC Press, 1993.


[7] Howarter J., Genson K. and Youngblood J.: Appl. Mater. Inter., 2011, 3, 2022.


[8] Kosior D., Zawala J., Niecikowska A. et al.: Colloids Surfaces A, 2015, 470, 333.


[9] Szymczyk K., Zdziennicka A. Janczuk B. et al.: J. Colloid Interface Sci., 2006, 293, 172.


[10] Szymczyk K., Zdziennicka A. and Krawczyk J.: Appl. Surf. Sci., 2014, 288, 488.


[11] Szymczyk K., Zdziennicka A. and Janczuk B.: Mater. Chem. Phys., 2015, 162, 166.


[12] Paria S., Biswal N. and Chaudhuri R.: Soft Matter: Synth., Proc., Products, 2015, 61, 655.


[13] Zdziennicka A., Janczuk B. and Wojcik W.: J. Colloid Interface Sci., 2005, 281, 465.


[14] Hobett T. and Schway M.: J. Biomed. Mater. Res., 1988, 22, 751.


[15] Liu Y., Huglin M., Mao R. et al.: Polymer, 1996, 37, 5069.


 [16] Muratore L. and Davis T.: J. Polym. Sci. A, 2000, 38, 810.


[17] Peppas N., Huang Y., Lugo M. et al.: Ann. Rev. Biomed. Eng., 2000, 2, 9.


[18] Das N., Pawar L., Kumar N. et al.: Chem. Phys. Lett., 2015, 635, 50. 


[19] Hierrezuelo J., Nieto-Ortega B. and Ruiz C.: J. Lumin., 2014, 147, 15.


 [20] Misra P., Dash U. and Maharana S.: Colloids Surf. A, 2015, 483, 36.


[21] Ruiz-Pena M., Oropesa-Nunez R., Pons T. et al.: Colloids Surf. B, 2010, 75, 282.


[22] Kumari M., Maurya J., Tasleem M. et al.: J. Photochem. Photobiol. B, 2014, 138, 27.


[23] Kresheck G. and Franks F.: Water. Plenum, New York 1975.


[24] Menguro K., Takasawa Y., Kawahashi N. et al.: Colloid Interface Sci., 1981, 83, 50.


[25] Kabir-ud-Din, Rub M. and Naqvi A.: J. Phys. Chem. B, 2010, 114, 6354. 


[26] Rub M., Asiri A. and Naqvi A.: J. Mol. Liq., 2013, 177, 19.


[27] Sharma R., Mahajan S. and Mahajan R.: Fluid Phase Equilib., 2014, 361, 104.


[28] Pradines V., Kragel J., Fainerman V. et al.: J. Phys. Chem. B, 2009, 113, 745.


[29] Chattoraj D. and Biridi K.: Adsorption and Gibbs Surface Excess. Plenum, New York 1984.


[30] Rosen M., Chosen A., Dahanayaki M. et al.: J. Phys. Chem., 1982, 86, 541.


[31] Sansanwal P.: J. Sci. Ind. Res., 2006, 65, 57.


[32] Sugihara G., Miyazono A., Nagadome S. et al.: J. Oleo Sci., 2003, 52, 449.


[33] Rosen M. and Aronson S.: Colloids Surf. A, 1981, 3, 201.


[34] Rosen M.: Comparative Effects of Chemical Structure and Environment on the Adsorption of Surfactants at the L/A Interface and on Micellization[in:] Mittal K. (Ed.), Solution Chemistry of Surfactants. Plenum, New York 1979, 45-61.


[35] Rosen M., Cohen A., Dahanayake M. et al.: J. Phys. Chem., 1982, 86, 541.


[36] Chaudhuri R. and Paria S.: J. Colloid Interface Sci., 2009, 337, 555.


[37] Bogdanowa G., Dolzhikova V. et al.: Colloid J., 2003, 65, 290.


陽離子、陰離子的界面潤濕行為——摘要、介紹

陽離子、陰離子的界面潤濕行為——實驗材料和方法

陽離子、陰離子的界面潤濕行為——結果和討論

陽離子、陰離子的界面潤濕行為——結論、致謝!