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Field Demonstration of a Nanophotonics-Enabled Solar Membrane Distillation Reactor for Desalination
Nanophotonics-enhanced solar membrane distillation (NESMD) is a highly innovative process that overcomes the intrinsic limitation of membrane distillation (MD) in energy consumption, thermal efficiency, and scalability. It applies a nanophotonic-materials-based photothermal coating on a commercial P...
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Published in: | Industrial & engineering chemistry research 2019-10, Vol.58 (40), p.18829-18835 |
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container_title | Industrial & engineering chemistry research |
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creator | Said, Ibrahim A Wang, Sen Li, Qilin |
description | Nanophotonics-enhanced solar membrane distillation (NESMD) is a highly innovative process that overcomes the intrinsic limitation of membrane distillation (MD) in energy consumption, thermal efficiency, and scalability. It applies a nanophotonic-materials-based photothermal coating on a commercial PTFE membrane surface. The coating serves as a solar-thermal collector, absorbs sunlight, and generates highly localized heat, while the rest of the membrane performs the MD function. In the current work, an original pilot-scale NESMD reactor was designed, developed, built, and tested at 29.7174° N, 95.4018° W to investigate the capability of NESMD reactor to desalinate 40 g/L NaCl solution under different intensities of solar irradiance. The preliminary experimental data showed a 99.8% salt removal with a water flux ranging between 0.12 LMH (where the acronym LMH stands for L/(m2 h)) at 88 W/m2 (cloudy conditions) and 0.77 LMH at 1012 W/m2 with an average water flux of 0.55 LMH without energy recovery. Further investigations and improvements are required to enhance the performance of the reactor, since it is still a new technology. |
doi_str_mv | 10.1021/acs.iecr.9b03246 |
format | article |
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It applies a nanophotonic-materials-based photothermal coating on a commercial PTFE membrane surface. The coating serves as a solar-thermal collector, absorbs sunlight, and generates highly localized heat, while the rest of the membrane performs the MD function. In the current work, an original pilot-scale NESMD reactor was designed, developed, built, and tested at 29.7174° N, 95.4018° W to investigate the capability of NESMD reactor to desalinate 40 g/L NaCl solution under different intensities of solar irradiance. The preliminary experimental data showed a 99.8% salt removal with a water flux ranging between 0.12 LMH (where the acronym LMH stands for L/(m2 h)) at 88 W/m2 (cloudy conditions) and 0.77 LMH at 1012 W/m2 with an average water flux of 0.55 LMH without energy recovery. 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The preliminary experimental data showed a 99.8% salt removal with a water flux ranging between 0.12 LMH (where the acronym LMH stands for L/(m2 h)) at 88 W/m2 (cloudy conditions) and 0.77 LMH at 1012 W/m2 with an average water flux of 0.55 LMH without energy recovery. 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The preliminary experimental data showed a 99.8% salt removal with a water flux ranging between 0.12 LMH (where the acronym LMH stands for L/(m2 h)) at 88 W/m2 (cloudy conditions) and 0.77 LMH at 1012 W/m2 with an average water flux of 0.55 LMH without energy recovery. Further investigations and improvements are required to enhance the performance of the reactor, since it is still a new technology.</abstract><pub>American Chemical Society</pub><doi>10.1021/acs.iecr.9b03246</doi><tpages>7</tpages><orcidid>https://orcid.org/0000-0001-6464-7274</orcidid><orcidid>https://orcid.org/0000-0001-5756-3873</orcidid></addata></record> |
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title | Field Demonstration of a Nanophotonics-Enabled Solar Membrane Distillation Reactor for Desalination |
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