Evaluation of a nanoporous lyotropic liquid crystal polymer membrane for the treatment of hydraulic fracturing produced water via cross-flow filtration

Current commercial nanofiltration and reverse osmosis membranes are limited in scope and performance due to their physicochemical properties. Desalination of hydraulic fracturing wastewater poses a particular challenge to membrane filtration given the high concentrations of both organic compounds an...

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Veröffentlicht in:Journal of membrane science 2019-12, Vol.592 (C), p.117313, Article 117313
Hauptverfasser: Dischinger, Sarah M., Rosenblum, James, Noble, Richard D., Gin, Douglas L.
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container_issue C
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container_title Journal of membrane science
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creator Dischinger, Sarah M.
Rosenblum, James
Noble, Richard D.
Gin, Douglas L.
description Current commercial nanofiltration and reverse osmosis membranes are limited in scope and performance due to their physicochemical properties. Desalination of hydraulic fracturing wastewater poses a particular challenge to membrane filtration given the high concentrations of both organic compounds and salts present in these waters. The recently-developed nanoporous, bicontinuous cubic, lyotropic liquid crystal, thin-film-composite polymer membrane (TFC QI membrane), having unique physicochemical properties, enables an alternative treatment of hydraulic fracturing wastewater. Specifically, the TFC QI membrane recovers the organic compounds from this high-salinity wastewater, enabling biodegradation to occur after desalination. However, other performance criteria must be demonstrated for a membrane to reach application. The work presented herein demonstrates the stable performance of the TFC QI membrane during 66 h of cross-flow filtration of hydraulic fracturing produced water. Compared to the commercial NF90 membrane, the TFC QI membrane recovered a larger portion of the organic compounds, had a higher thickness-normalized water flux, and fouled less. The combination of the TFC QI membrane’s selectivity with its reduced fouling propensity makes possible a treatment for hydraulic fracturing wastewater and other complex aqueous streams inaccessible by most commercial membranes, motivating the further study and development of the TFC QI membrane. [Display omitted] •Novel nanoporous LLC membrane is stable during cross-flow filtration of produced water.•LLC membrane selects organics over salts better than commercial NF90 membrane.•LLC membrane fouls less than commercial NF90 membrane.
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subjects Hydraulic fracturing
INORGANIC, ORGANIC, PHYSICAL, AND ANALYTICAL CHEMISTRY
Membrane fouling
Membrane selectivity
Nanofiltration
Produced water
title Evaluation of a nanoporous lyotropic liquid crystal polymer membrane for the treatment of hydraulic fracturing produced water via cross-flow filtration
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