110th Anniversary: Liquid Separation Membranes Based on Nanowire Substrates for Organic Solvent Nanofiltration and Membrane Distillation
Ceramic nanowire-based flat porous membranes allow development of organic–inorganic membranes. Two types of surface modifications of alumina nanowire-based membranes were implemented. The first one involved reaction of hydroxyl groups on an alumina surface with silicone oil at a higher temperature,...
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Veröffentlicht in: | Industrial & engineering chemistry research 2019-08, Vol.58 (31), p.14350-14356 |
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creator | Chau, John Singh, Dhananjay Sirkar, Kamalesh K |
description | Ceramic nanowire-based flat porous membranes allow development of organic–inorganic membranes. Two types of surface modifications of alumina nanowire-based membranes were implemented. The first one involved reaction of hydroxyl groups on an alumina surface with silicone oil at a higher temperature, developing a grafted coating yielding a nonporous or a porous hydrophobic membrane. The hydrophobicity was verified via a contact angle comparable to that of a porous hydrophobic ethylene chlorotrifluoroethylene membrane. The membrane porosity was demonstrated by running vacuum membrane distillation with a 1 wt % salt-containing brine. The process yielded satisfactory water vapor flux with 98% salt rejection. The silicone oil’s reaction with the alumina surface could also block the pores, yielding a nonporous membrane for organic solvent nanofiltration (OSN). Interfacial polymerization was also carried out on the porous nanowire membrane to yield a nonporous polyamide membrane. The developed membrane was tested for OSN using the dyes Safranin O (MW, 351 g/mol) and Brilliant Blue R (MW, 826 g/mol) in methanol. Rejections of 68.1% and 76.7% were achieved for Safranin O and Brilliant Blue R, respectively, at a relatively low pressure of 551 kPag (80 psig). The methanol permeabilities were higher than those of a few nanofiltration membranes described in the literature. |
doi_str_mv | 10.1021/acs.iecr.9b02292 |
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Two types of surface modifications of alumina nanowire-based membranes were implemented. The first one involved reaction of hydroxyl groups on an alumina surface with silicone oil at a higher temperature, developing a grafted coating yielding a nonporous or a porous hydrophobic membrane. The hydrophobicity was verified via a contact angle comparable to that of a porous hydrophobic ethylene chlorotrifluoroethylene membrane. The membrane porosity was demonstrated by running vacuum membrane distillation with a 1 wt % salt-containing brine. The process yielded satisfactory water vapor flux with 98% salt rejection. The silicone oil’s reaction with the alumina surface could also block the pores, yielding a nonporous membrane for organic solvent nanofiltration (OSN). Interfacial polymerization was also carried out on the porous nanowire membrane to yield a nonporous polyamide membrane. The developed membrane was tested for OSN using the dyes Safranin O (MW, 351 g/mol) and Brilliant Blue R (MW, 826 g/mol) in methanol. Rejections of 68.1% and 76.7% were achieved for Safranin O and Brilliant Blue R, respectively, at a relatively low pressure of 551 kPag (80 psig). 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Eng. Chem. Res</addtitle><description>Ceramic nanowire-based flat porous membranes allow development of organic–inorganic membranes. Two types of surface modifications of alumina nanowire-based membranes were implemented. The first one involved reaction of hydroxyl groups on an alumina surface with silicone oil at a higher temperature, developing a grafted coating yielding a nonporous or a porous hydrophobic membrane. The hydrophobicity was verified via a contact angle comparable to that of a porous hydrophobic ethylene chlorotrifluoroethylene membrane. The membrane porosity was demonstrated by running vacuum membrane distillation with a 1 wt % salt-containing brine. The process yielded satisfactory water vapor flux with 98% salt rejection. The silicone oil’s reaction with the alumina surface could also block the pores, yielding a nonporous membrane for organic solvent nanofiltration (OSN). Interfacial polymerization was also carried out on the porous nanowire membrane to yield a nonporous polyamide membrane. The developed membrane was tested for OSN using the dyes Safranin O (MW, 351 g/mol) and Brilliant Blue R (MW, 826 g/mol) in methanol. Rejections of 68.1% and 76.7% were achieved for Safranin O and Brilliant Blue R, respectively, at a relatively low pressure of 551 kPag (80 psig). 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Eng. Chem. Res</addtitle><date>2019-08-07</date><risdate>2019</risdate><volume>58</volume><issue>31</issue><spage>14350</spage><epage>14356</epage><pages>14350-14356</pages><issn>0888-5885</issn><eissn>1520-5045</eissn><abstract>Ceramic nanowire-based flat porous membranes allow development of organic–inorganic membranes. Two types of surface modifications of alumina nanowire-based membranes were implemented. The first one involved reaction of hydroxyl groups on an alumina surface with silicone oil at a higher temperature, developing a grafted coating yielding a nonporous or a porous hydrophobic membrane. The hydrophobicity was verified via a contact angle comparable to that of a porous hydrophobic ethylene chlorotrifluoroethylene membrane. The membrane porosity was demonstrated by running vacuum membrane distillation with a 1 wt % salt-containing brine. The process yielded satisfactory water vapor flux with 98% salt rejection. The silicone oil’s reaction with the alumina surface could also block the pores, yielding a nonporous membrane for organic solvent nanofiltration (OSN). Interfacial polymerization was also carried out on the porous nanowire membrane to yield a nonporous polyamide membrane. The developed membrane was tested for OSN using the dyes Safranin O (MW, 351 g/mol) and Brilliant Blue R (MW, 826 g/mol) in methanol. Rejections of 68.1% and 76.7% were achieved for Safranin O and Brilliant Blue R, respectively, at a relatively low pressure of 551 kPag (80 psig). The methanol permeabilities were higher than those of a few nanofiltration membranes described in the literature.</abstract><pub>American Chemical Society</pub><doi>10.1021/acs.iecr.9b02292</doi><tpages>7</tpages><orcidid>https://orcid.org/0000-0001-7157-5010</orcidid></addata></record> |
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title | 110th Anniversary: Liquid Separation Membranes Based on Nanowire Substrates for Organic Solvent Nanofiltration and Membrane Distillation |
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