Dehydration by Pervaporation of an Organic Solution for the Direct Synthesis of Diethyl Carbonate

Pervaporation has been a central subject in the research community within the scope of the further development of energy- and cost-efficient alternatives to conventional liquid–liquid separation technologies. The potential eligibility of four commercial membranes (ZEBREX ZX0, PERVAPTM 4155-80, PERVAPTM 4100, PERVAPTM 4101) for use in an integrated dehydration application of a diethyl carbonate/water/ethanol mixture by pervaporation was assessed experimentally. The impact of feed concentration, operating temperature, pressure, and sweep gas flow rate on membrane separation performance, including permeation flux, permeate quality, selectivity, and permeance, was thoroughly investigated. Applying the ZX0 membrane delivered the best qualities of all tested membranes of the permeate stream, with a water concentration of mostly >98%. In comparing the water flux, the ZX0 membrane remained reasonably competitive with the polymer membranes. Furthermore, the sweep gas volume flow rate and the operating temperature were identified as influencing the flux significantly but not the product composition. At the same time, the feed concentration of water also influenced the water purity within the permeate. The experiments were monitored with a partial least squares model, allowing a quick assessment of obtained samples while delivering accurate results.

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Publication Details

Journal
Separations
Published
2024-10-10
DOI
https://doi.org/10.3390/separations11100289
Primary Topic
Membrane Separation and Gas Transport
Type
article
Field-Weighted Citation Impact
0.00

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article

Dehydration by Pervaporation of an Organic Solution for the Direct Synthesis of Diethyl Carbonate

Christian Jordan, Kouessan Aziaba, Michael Harasek, Marco Annerl et al.
Separations
Membrane Separation and Gas Transport
article

Dehydration by Pervaporation of an Organic Solution for the Direct Synthesis of Diethyl Carbonate

Christian Jordan, Kouessan Aziaba, Michael Harasek, Marco Annerl, Gerhard Greilinger, Magdalena Teufner-Kabas, Florian Kabas
article en

Abstract

Pervaporation has been a central subject in the research community within the scope of the further development of energy- and cost-efficient alternatives to conventional liquid–liquid separation technologies. The potential eligibility of four commercial membranes (ZEBREX ZX0, PERVAPTM 4155-80, PERVAPTM 4100, PERVAPTM 4101) for use in an integrated dehydration application of a diethyl carbonate/water/ethanol mixture by pervaporation was assessed experimentally. The impact of feed concentration, operating temperature, pressure, and sweep gas flow rate on membrane separation performance, including permeation flux, permeate quality, selectivity, and permeance, was thoroughly investigated. Applying the ZX0 membrane delivered the best qualities of all tested membranes of the permeate stream, with a water concentration of mostly >98%. In comparing the water flux, the ZX0 membrane remained reasonably competitive with the polymer membranes. Furthermore, the sweep gas volume flow rate and the operating temperature were identified as influencing the flux significantly but not the product composition. At the same time, the feed concentration of water also influenced the water purity within the permeate. The experiments were monitored with a partial least squares model, allowing a quick assessment of obtained samples while delivering accurate results.

SeparationsVol. 11(10)
TU Wien (AT)
Technische Universität Wien, Österreichische Forschungsförderungsgesellschaft
Openalex Percentile: Top 83%
Membrane Separation and Gas Transport
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Dehydration by Pervaporation of an Organic Solution for the Direct Synthesis of Diethyl Carbonate — Christian Jordan, Kouessan Aziaba, et al. · Separations (2024) | TGRS Research Map | TGRS