Heat and Mass Transport in Modeling Membrane Distillation Configurations: A Review

被引:116
作者
Olatunji, Samuel O. [1 ]
Camacho, Lucy Mar [1 ]
机构
[1] Texas A&M Univ Kingsville, Dept Environm Engn, Kingsville, TX 78363 USA
来源
FRONTIERS IN ENERGY RESEARCH | 2018年 / 6卷
关键词
membrane distillation; heat transfer; mass transfer; temperature polarization; concentration polarization; MD configurations; desalination; DIRECT-CONTACT MEMBRANE; NEURAL-NETWORK MODEL; OF-THE-ART; VACUUM MEMBRANE; AIR-GAP; NUMERICAL-SIMULATION; WATER DESALINATION; TEMPERATURE POLARIZATION; SEAWATER DESALINATION; OPERATING PARAMETERS;
D O I
10.3389/fenrg.2018.00130
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Identification and mitigation of challenges associated with membrane distillation (MD) modeling are very crucial to the applicability of MD technology in the industry. Several research studies have been carried out on direct contact membrane distillation (DCMD) modeling because of its simplicity, while other MD configurations have gained little attention. Most studies conducted on MD modeling were achieved based on uniform membrane pore size and pore size distribution assumption. This study exploits the homogeneity of these assumptions to conduct a modeling review for temperature polarization (TP) and concentration polarization (CP), as they apply to MD configurations. TP and CP phenomena have been identified as two of the main challenges to advance MD modeling for further development of MD technology. Their impact are detailed in the heat and mass transfer mechanisms discussed. Thermal conductivity of common hydrophobic commercial membrane materials at different temperatures are presented in this study. The use of optimal operating flow rates, suitable membranes, and proper module design are recommended as viable solutions to reduce the effect of TP and CP on permeate flux decay.
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页数:18
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共 140 条
  • [21] Modelling the simultaneous heat and mass transfer of direct contact membrane distillation in hollow fibre modules
    Bui, V. A.
    Vu, L. T. T.
    Nguyen, M. H.
    [J]. JOURNAL OF MEMBRANE SCIENCE, 2010, 353 (1-2) : 85 - 93
  • [22] Advances in Membrane Distillation for Water Desalination and Purification Applications
    Camacho, Lucy Mar
    Dumee, Ludovic
    Zhang, Jianhua
    Li, Jun-de
    Duke, Mikel
    Gomez, Juan
    Gray, Stephen
    [J]. WATER, 2013, 5 (01) : 94 - 196
  • [23] Modeling and optimization of a solar driven membrane distillation desalination system
    Chang, Hsuan
    Wang, Gow-Bin
    Chen, Yih-Hang
    Li, Chien-Chang
    Chang, Cheng-Liang
    [J]. RENEWABLE ENERGY, 2010, 35 (12) : 2714 - 2722
  • [24] Theoretical modeling and experimental analysis of direct contact membrane distillation
    Chen, Tsung-Ching
    Ho, Chii-Dong
    Yeh, Ho-Ming
    [J]. JOURNAL OF MEMBRANE SCIENCE, 2009, 330 (1-2) : 279 - 287
  • [25] Response surface modeling and optimization of direct contact membrane distillation for water desalination
    Cheng, Dongjian
    Gong, Wei
    Li, Na
    [J]. DESALINATION, 2016, 394 : 108 - 122
  • [26] Numerical Simulation and Optimal Design of AGMD-Based Hollow Fiber Modules for Desalination
    Cheng, Li-Hua
    Wu, Ping-Chung
    Chen, Junghui
    [J]. INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH, 2009, 48 (10) : 4948 - 4959
  • [27] Study of the rectangular cross-flow flat-sheet membrane module for desalination by vacuum membrane distillation
    Chiam, Chel-Ken
    Sarbatly, Rosalam
    [J]. CHEMICAL ENGINEERING AND PROCESSING-PROCESS INTENSIFICATION, 2016, 102 : 169 - 185
  • [28] Heat transfer in the rectangular cross-flow flat-sheet membrane module for vacuum membrane distillation
    Chiam, Chel-Ken
    Sarbatly, Rosalam
    [J]. CHEMICAL ENGINEERING AND PROCESSING-PROCESS INTENSIFICATION, 2014, 79 : 23 - 33
  • [29] Design strategy for networking membrane module and heat exchanger for direct contact membrane distillation process in seawater desalination
    Chung, Seungjoon
    Seo, Chang Duck
    Lee, Hanyong
    Choi, Jae-Hoon
    Chung, Jinwook
    [J]. DESALINATION, 2014, 349 : 126 - 135
  • [30] Close E, 2010, COMPUT-AIDED CHEM EN, V28, P649