Gas separation by adsorption: technological drivers and opportunities for improvement

被引:87
作者
Pullumbi, Pluton [1 ]
Brandani, Federico [1 ]
Brandani, Stefano [2 ]
机构
[1] Air Liquide Paris Innovat Campus, 1 Chemin Porte Loges, F-78350 Les Loges En Josas, France
[2] Univ Edinburgh, Sch Engn, Kings Bldg, Edinburgh EH9 3FB, Midlothian, Scotland
关键词
METAL-ORGANIC FRAMEWORKS; CO2; CAPTURE; POROUS MATERIALS; CARBON-DIOXIDE; FORCE-FIELDS; SIMULATION; OPTIMIZATION; MODEL; PURIFICATION; DISCOVERY;
D O I
10.1016/j.coche.2019.04.008
中图分类号
Q81 [生物工程学(生物技术)]; Q93 [微生物学];
学科分类号
071005 ; 0836 ; 090102 ; 100705 ;
摘要
Chemical and petrochemical companies are increasingly realizing that their sustainable development critically depends upon development of new innovative processes that use more efficiently materials and energy. As overall separation/ purification processes account for 40-60% of capital and operating costs, their amelioration can significantly reduce costs, energy use and waste generation by increasing profits. Gas separation by adsorption technology is a well-established unit operation in chemical and petrochemical industries due to its efficiency for dealing with a large range of gas separations including impurity removal, gas purification, and separation in recycle streams. The technology is far from being mature and opportunities to expand its domain of applicability and improve its efficiency are high in a context where better understanding of physical phenomena and technological progress in materials and engineering research are integrated. Major contribution for innovations in gas separation by adsorption technology relates to the discovery of new adsorbents with better separation characteristics coupled to process development and its optimization using multi-objective and multi-domain numerical approaches. This short review identifies technological gaps and drivers for accelerating the development of industrially important gas separations by adsorption.
引用
收藏
页码:131 / 142
页数:12
相关论文
共 160 条
[1]   Emerging CO2 capture systems [J].
Abanades, J. C. ;
Arias, B. ;
Lyngfelt, A. ;
Mattisson, T. ;
Wiley, D. E. ;
Li, H. ;
Ho, M. T. ;
Mangano, E. ;
Brandani, S. .
INTERNATIONAL JOURNAL OF GREENHOUSE GAS CONTROL, 2015, 40 :126-166
[2]   Applications of molecular simulations for separation and adsorption in zeolites [J].
Abdelrasoul, Amira ;
Zhang, Hongyu ;
Cheng, Chil-Hung ;
Doan, Huu .
MICROPOROUS AND MESOPOROUS MATERIALS, 2017, 242 :294-348
[3]  
Adhikari A, 2015, INTEL SYST REF LIBR, V79, P1, DOI 10.1007/978-3-319-13212-9
[4]   Simulation and Optimization of Pressure Swing Adsorption Systems Using Reduced-Order Modeling [J].
Agarwal, Anshul ;
Biegler, Lorenz T. ;
Zitney, Stephen E. .
INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH, 2009, 48 (05) :2327-2343
[5]   Structuring adsorbents and catalysts by processing of porous powders [J].
Akhtar, Farid ;
Andersson, Linnea ;
Ogunwumi, Steven ;
Hedin, Niklas ;
Bergstrom, Lennart .
JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 2014, 34 (07) :1643-1666
[6]   Database for CO2 Separation Performances of MOFs Based on Computational Materials Screening [J].
Altintas, Cigdem ;
Avci, Gokay ;
Daglar, Hilal ;
Azar, Ayda Nemati Vesali ;
Velioglu, Sadiye ;
Erucar, Ilknur ;
Keskin, Seda .
ACS APPLIED MATERIALS & INTERFACES, 2018, 10 (20) :17257-17268
[7]   On the development of Vacuum Swing adsorption (VSA) technology for post-combustion CO2 capture [J].
Andersen, Anne ;
Divekar, Swapnil ;
Dasgupta, Soumen ;
Cavka, Jasmina Hafizovic ;
Aarti ;
Nanoti, Anshu ;
Spjelkavik, Aud ;
Goswami, Amar N. ;
Garg, M. O. ;
Blom, Richard .
GHGT-11, 2013, 37 :33-39
[8]   Modelling the assembly of nanoporous silica materials [J].
Auerbach, Scott M. ;
Fan, Wei ;
Monson, Peter A. .
INTERNATIONAL REVIEWS IN PHYSICAL CHEMISTRY, 2015, 34 (01) :35-70
[9]  
Austin Tim, 2016, Materials Discovery, V3, P1, DOI 10.1016/j.md.2015.12.003
[10]   Adsorption of carbon dioxide by diethanolamine activated alumina beads in a fixed bed [J].
Auta, M. ;
Hameed, B. H. .
CHEMICAL ENGINEERING JOURNAL, 2014, 253 :350-355