Economic Framework of Membrane Technologies for Natural Gas Applications

被引:70
作者
Martin-Gil, V [1 ]
Ahmad, M. Z. [1 ]
Castro-Munoz, R. [1 ]
Fila, V [1 ]
机构
[1] Univ Chem & Technol, Dept Inorgan Technol, Tech 5, Prague 16628 6, Czech Republic
关键词
Natural gas; membrane technology; CO2; removal; polymeric membrane; 6FDA-BASED POLYIMIDE MEMBRANES; MIXED MATRIX MEMBRANES; HOLLOW-FIBER MEMBRANES; PENETRANT-INDUCED PLASTICIZATION; CO2-SELECTIVE POLYMER MEMBRANES; CARBON-DIOXIDE PLASTICIZATION; INTRINSIC MICROPOROSITY PIMS; OF-THE-ART; PERMEATION PROPERTIES; TRANSPORT-PROPERTIES;
D O I
10.1080/15422119.2018.1532911
中图分类号
O69 [应用化学];
学科分类号
081704 ;
摘要
Natural gas is one of the most highly used resources, not only as a fuel but also as a raw material for many industrial processes. In addition, it is an environmental friendly fuel due to its lower greenhouse gas emission than that of coal or oil. However, it is a nonrenewable energy source and the quality of the available resources is expected to deplete continuously. In this scenario, membrane technologies can play an important role in the purification of the reduced and contaminated resources, competing with the current technologies owing to their simpler adaptability to different feed compositions, lower energy consumption and investment costs. In this review, the current state of the natural gas sources, including nonconventional resources (tight/shale gas and biogas), is explored, along with the current market status of the conventional natural gas. A comparison between the conventional purification technologies and membrane processes is provided, together with the currently available commercial membranes as well as new materials. Furthermore, the latest materials in research stage are reviewed, pointing out their limitations to the current membranes technologies. Finally, future research trends to overcome the current membrane technology limitations are proposed, and the conclusions are addressed.
引用
收藏
页码:298 / 324
页数:27
相关论文
共 50 条
[21]   Economic Modelling of Mixing Hydrogen with Natural Gas [J].
Zacepins, Aleksejs ;
Kotovs, Daniels ;
Komasilovs, Vitalijs ;
Kviesis, Armands .
PROCESSES, 2024, 12 (02)
[22]   Polymeric Membranes for H2S and CO2 Removal from Natural Gas for Hydrogen Production: A Review [J].
Rao, Shraavya ;
Prasad, Babul ;
Han, Yang ;
Ho, W. S. Winston .
ENERGIES, 2023, 16 (15)
[23]   Integration of hybrid membrane-distillation processes to recover helium from pre-treated natural gas in liquefied natural gas plants [J].
Quader, M. Abdul ;
Rufford, Thomas E. ;
Smart, Simon .
SEPARATION AND PURIFICATION TECHNOLOGY, 2021, 263
[24]   Alternative Technologies for Natural Gas Storage [J].
Liu, Jianhui ;
Yang, Liang ;
Sun, Lifei ;
Chen, Liyu ;
Chen, Zhehan ;
Fan, Shuanshi .
PROCEEDINGS OF ISHTEC2012, 4TH INTERNATIONAL SYMPOSIUM ON HEAT TRANSFER AND ENERGY CONSERVATION, 2011, :443-446
[25]   Membrane technologies and applications in mining processes [J].
Uysal T. .
Scientific Mining Journal, 2021, 60 (04) :227-237
[26]   Development of Technologies for More Efficient Deep Processing of Natural Gas [J].
Sedov, I. V. ;
Makaryan, I. A. ;
Berzigiyarov, P. K. ;
Magomedova, M. V. ;
Maksimov, A. L. .
RUSSIAN JOURNAL OF APPLIED CHEMISTRY, 2018, 91 (12) :1922-1936
[27]   Polymer membranes for acid gas removal from natural gas [J].
George, Gigi ;
Bhoria, Nidhika ;
AlHallaq, Sama ;
Abdala, Ahmed ;
Mittal, Vikas .
SEPARATION AND PURIFICATION TECHNOLOGY, 2016, 158 :333-356
[28]   Modern Level of Catalysts and Technologies for the Conversion of Natural Gas into Syngas [J].
Pinaeva, L. G. ;
Noskov, A. S. .
CATALYSIS IN INDUSTRY, 2022, 14 (01) :66-85
[29]   Viscosity prediction for natural gas processing applications [J].
Motahhari, H. ;
Satyro, M. A. ;
Yarranton, H. W. .
FLUID PHASE EQUILIBRIA, 2012, 322 :56-65
[30]   Natural gas liquids (NGL) recovery: A framework for environmental, technical and economic assessments and optimizations [J].
Kazemi, Abolghasem .
CHEMICAL ENGINEERING SCIENCE, 2025, 316