Polymer materials for solving actual problems of membrane gas separation

被引:16
作者
Alentiev, Alexander Yu. [1 ]
Ryzhikh, Victoria E. [1 ]
Syrtsova, Darya A. [1 ]
Belov, Nikolay A. [1 ]
机构
[1] Russian Acad Sci, AV Topchiev Inst Petrochem Synth, Leninsky Prosp 29, Moscow 119991, Russia
关键词
polymers; membranes; permeability; selectivity; gas separation; FACILITATED TRANSPORT MEMBRANE; MIXED MATRIX MEMBRANES; FREE-VOLUME; INTRINSIC MICROPOROSITY; CO2; SEPARATION; PERMEATION PROPERTIES; PHYSICAL-PROPERTIES; CO2/N-2; REARRANGED POLYMER; MOLECULAR-WEIGHT;
D O I
10.59761/RCR5083
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Membrane gas separation using polymeric membranes is one of rapidly developing energy-conserving technologies. This review describes the scope of membrane gas separation problems and demonstrates the relevance of membrane methods for their solution. The basic concepts and regularities of diffusion gas transfer and principles and characteristics of membrane gas separation are considered. The main physicochemical approaches to the selection of membrane materials considering both the properties of the gas +/- polymer system and the structure and physical properties of polymers are discussed. The considered issues are combined within a common approach to substantiate the choice of both existing commercial polymers and advanced polymeric materials to address important gas separation problems such as separation of air components; carbon dioxide, hydrogen and helium recovery from natural and industrial gas mixtures; and separation of a nitrogen and methane mixture. The avenues of development of the membrane materials science to solve each of the mentioned problems of membrane gas separation are demonstrated. The review is intended for specialists in the synthesis and physics of polymers for planning the research and assessing the applicability of polymeric materials for various practical gas separation problems and for specialists in the membrane materials science and membrane technology.
引用
收藏
页数:22
相关论文
共 166 条
[11]   High transport parameters and free volume of perfluorodioxole copolymers [J].
Alentiev, AY ;
Yampolskii, YP ;
Shantarovich, VP ;
Nemser, SM ;
Plate, NA .
JOURNAL OF MEMBRANE SCIENCE, 1997, 126 (01) :123-132
[12]   Polynorbornenes bearing ether fragments in substituents: Promising membrane materials with enhanced CO2 permeability [J].
Alentiev, Dmitry A. ;
Rudakova, Marina A. ;
Zarezin, Danil P. ;
Topchiy, Maxim A. ;
Asachenko, Andrey F. ;
Bolshchikov, Boris D. ;
Belov, Nikolay A. ;
Nikiforov, Roman Yu. ;
Alentiev, Alexander Yu. ;
Finkelshtein, Eugene Sh. ;
Bermeshev, Maxim, V .
JOURNAL OF MEMBRANE SCIENCE, 2022, 648
[13]   Janus tricyclononene polymers bearing tri(n-alkoxy)silyl side groups for membrane gas separation [J].
Alentiev, Dmitry A. ;
Egorova, Elena S. ;
Bermeshev, Maxim V. ;
Starannikova, Ludmila E. ;
Topchiy, Maxim A. ;
Asachenko, Andrey F. ;
Gribanov, Pavel S. ;
Nechaev, Mikhail S. ;
Yampolskii, Yuri P. ;
Finkelshtein, Eugene Sh. .
JOURNAL OF MATERIALS CHEMISTRY A, 2018, 6 (40) :19393-19408
[14]   Oxygen Enrichment Membranes for Kuwait Power Plants: A Case Study [J].
Alqaheem, Yousef ;
Alswaileh, Fajer .
MEMBRANES, 2021, 11 (03)
[15]   Thermally rearranged polypyrrolone membranes for high-pressure natural gas separation applications [J].
AlQahtani, Mohammad S. ;
Mezghani, Khaled .
JOURNAL OF NATURAL GAS SCIENCE AND ENGINEERING, 2018, 51 :262-270
[16]  
[Anonymous], 1998, GAZORAZDELITELNYE PA
[17]  
[Anonymous], Polymer Database(PoLyInfo)-DICE:: National Institute for Materials Science
[18]  
[Anonymous], DAT POL GAS SEP MEMB
[19]   Gas Separation Membrane Materials: A Perspective [J].
Baker, Richard W. ;
Low, Bee Ting .
MACROMOLECULES, 2014, 47 (20) :6999-7013
[20]  
Banerjee S., 2017, MEMBRANE MAT GAS VAP, P223