Modern Approaches in Membrane Technology for Gas Separation and Water Treatment presents condensed information on novel and promising membrane materials. The book answers some major questions from the membrane community about three promising materials that are to be introduced at industrial scale. It introduces recent, out of the box, ideas concerning the application of new methods capable to enhance the membrane separation efficiency. Sections cover potential commercialization, important question on three famous membrane materials, and new approaches in membrane technology.
Finally, the book describes and discusses three novel ideas about the potential effect of the magnetic field on membrane separation efficiency, the use of cryogenic technology on membrane separations, and the use of nanobubble technology on water membrane processes.
Part 1 New, promising to be commercialized, membrane materials and units 1. Review on polymeric membrane materials for gas separations which are stated above the Robeson’s trade-off upper bound 2. New inorganic membranes for gas separations which are stated above the Robeson’s trade-off upper bound 3. New nonporous fillers-based hybrid membranes for gas separations and water treatment process 4. New commercial membranes for gas separations and water desalination processes Part 2 New membrane manufacturing materials 5. New metal-organic frameworks and other porous filler-based hybrid membranes for gas separation and wastewater treatment 6. Polymers of intrinsic microporosity and their applicability in pilot-scale membrane units 7. SiC porous membranes. How possible could be the production of high selective porous SiC membranes? 8. Carbon and graphene oxide materials and their potential applications in membrane separation technology 9. Solvent and material selection for greener membrane manufacturing 10. New polymeric and inorganic membrane materials for water separation Part 3 The next decade’s ideas about the future membrane technology 11. Hybrid membranes, liquid/solid, for the enhancement of membrane gas selectivity. The example of ionic liquid membrane 12. Cryogenic-membrane gas separation hybrid processes 13. New perspectives in gas separations (CO2/CH4, H2/CH4) using membranes 14. New perspectives in O2/N2 gas separation 15. Recent advances in the application of magnetic/electromagnetic field for water desalination 16. Applications of graphene oxide in reverse osmosis membranes 17. Membrane water processes and nanobubble technology
Angelo Basile, a Chemical Engineer with Ph.D. in Technical Physics, is author of hundreds of papers, books, chapter-books, and Special Issues in the field of Membrane Science and Technology, with also various Italian, European and worldwide patents. He is an Associate Editor of various int. journals (IJHE, APCEJ, etc), Editor-in-Chief of the Int. J. Membrane Sci. & Techn., and member of the Editorial Board of more 25 int. journals. Today Basile is working at General TAG, Via Mastri Ligornettesi n. 28, Ligornetto 6853 – Switzerland. Evangelos P. Favvas is a Senior Researcher at the Institute of Nanoscience and Nanotechnology in NCSR “Demokritos, Athens - Greece. He has 80 scientific papers in peer-reviewed journals and 100 articles in international congresses; editor of 2 scientific books, 2 Greek and 4 worldwide patents. His research interests embrace the experimental study of gas separation, with emphasis on carbon dioxide and hydrogen separations, using membranes, sorbents and hybrid porous materials. The in-situ study of condensation process using the combination of X-ray and neutron scattering and adsorption techniques is another filed of his interests.