Population balance modeling and simulation of liquid-liquid-liquid phase transfer catalyzed synthesis of mandelic acid from benzaldehyde

被引:7
|
作者
Sowbna, P. R. [1 ]
Yadav, Ganapati D. [1 ]
Ramkrishna, Doraiswami [2 ]
机构
[1] Inst Chem Technol ICT, Dept Chem Engn, Bombay 400019, Maharashtra, India
[2] Purdue Univ, Sch Chem Engn, W Lafayette, IN 47907 USA
关键词
phase transfer catalysis (PTC); liquid-liquid-liquid phase transfer catalysis (L-L PTC); population balance; mandelic acid; Monte Carlo simulation; interval of quiescence technique; P-CHLORONITROBENZENE; BENZYL-CHLORIDE; SODIUM SULFIDE; O-ALKYLATION; TRI-LIQUID; SELECTIVITY; NOVELTIES; RATES; INTENSIFICATION; REDUCTION;
D O I
10.1002/aic.13780
中图分类号
TQ [化学工业];
学科分类号
0817 ;
摘要
Mandelic acid has cosmetic, pharmaceutical, and antibacterial activities and is used in urinary antiseptic medicines. An attractive process for the production of mandelic acid is through reaction between benzaldehyde, sodium hydroxide, and chloroform in the presence of polyethylene glycol 4000 as a phase transfer catalyst. The liquidliquid phase transfer catalyzed (LL PTC) reaction can be intensified by converting it into three-liquid phases (LLL PTC). We address the modeling of a well-stirred reactor for the foregoing process, in which organic droplets surrounded by a thin film of catalyst-rich phase are suspended in the aqueous phase. A population balance model is formulated for the LLL PTC reaction and solved by Monte Carlo simulation using interval of quiescence technique. Transport processes and intrinsic reaction kinetics are extracted from the experiments. This population balance model serves to assess and interpret the relative roles of various processes in LLL PTC reaction, such as diffusive transport, reaction, and interaction between dispersed phase droplets. The model is expected to be an effective tool for reactor design and scale up. (C) 2012 American Institute of Chemical Engineers AIChE J, 2012
引用
收藏
页码:3799 / 3809
页数:11
相关论文
共 50 条
  • [31] Efficient and Convenient Synthesis of Diethers from Furoin Under Ultrasound and Solid-liquid Phase Transfer Catalysis Conditions
    ZHANG Feng1
    2. Experimental Center of Testing Science
    Chemical Research in Chinese Universities, 2007, (04) : 486 - 488
  • [32] Synthesis of cinnamyl acetate by solid-liquid phase transfer catalysis: Kinetic study with a batch reactor
    Devulapelli, Venu Gopal
    Weng, Hung-Shan
    CATALYSIS COMMUNICATIONS, 2009, 10 (13) : 1638 - 1642
  • [33] Liquid-Liquid Interfacial Electron Transfer from Ferrocene to Gold(III): An Ultrasimple and Ultrafast Gold Nanoparticle Synthesis in Water under Ambient Conditions
    Ciganda, Roberto
    Irigoyen, Joseba
    Gregurec, Danijela
    Hernandez, Ricardo
    Moya, Sergio
    Wang, Changlong
    Ruiz, Jaime
    Astruc, Didier
    INORGANIC CHEMISTRY, 2016, 55 (13) : 6361 - 6363
  • [34] Direct enantioseparation of mandelic acid by high-performance liquid chromatography using a phenyl column precoated with a small amount of cyclodextrin additive in a mobile phase
    Watanabe, Yuri
    Mikami, Ikko
    Yamamoto, Atsushi
    Aizawa, Sen-ichi
    Taga, Atsushi
    Mochizuki, Naoki
    Ishihara, Yoshimi
    Kodama, Shuji
    CHIRALITY, 2020, 32 (07) : 1020 - 1029
  • [35] Synthesis of novel phase transfer catalysts derived from proline-mandelic acid/tartaric acid: their evaluation in enantioselective epoxidation and Darzen condensation
    Deepak P Mahajan
    Himanshu M Godbole
    Girij P Singh
    Gautham G Shenoy
    Journal of Chemical Sciences, 2019, 131
  • [36] Synthesis of novel phase transfer catalysts derived from proline-mandelic acid/tartaric acid: their evaluation in enantioselective epoxidation and Darzen condensation
    Mahajan, Deepak P.
    Godbole, Himanshu M.
    Singh, Girij P.
    Shenoy, Gautham G.
    JOURNAL OF CHEMICAL SCIENCES, 2019, 131 (03)
  • [37] Formic acid electro-synthesis from carbon dioxide in a room temperature ionic liquid
    Martindale, Benjamin C. M.
    Compton, Richard G.
    CHEMICAL COMMUNICATIONS, 2012, 48 (52) : 6487 - 6489
  • [38] Selective synthesis of 1-(1-naphthyloxy)-2,3-epoxypropane from 1-naphthol and epichlorohydrin under solid-liquid phase transfer catalysis: a waste minimization strategy
    Yadav, Ganapati D.
    Kulkarni, Mandar G.
    CLEAN TECHNOLOGIES AND ENVIRONMENTAL POLICY, 2017, 19 (04) : 1223 - 1230
  • [39] Kinetics of reaction of benzyl chloride with H2S-rich aqueous monoethanolamine: selective synthesis of dibenzyl sulfide under liquid-liquid phase-transfer catalysis
    Sen, Sujit
    Pradhan, Narayan C.
    Patwardhan, Anand V.
    ASIA-PACIFIC JOURNAL OF CHEMICAL ENGINEERING, 2011, 6 (02) : 257 - 265
  • [40] Highly enantioselective synthesis of syn-aldols of cyclohexanones via chiral primary amine catalyzed asymmetric transfer aldol reactions in ionic liquid
    Zhou, Pengxin
    Luo, Sanzhong
    Cheng, Jin-Pei
    ORGANIC & BIOMOLECULAR CHEMISTRY, 2011, 9 (06) : 1784 - 1790