Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scaling

The recent high demands for reuse of salty water for irrigation affected membrane producers to assess new potential technologies for undesirable physical, chemical and biological contaminants removal. This paper studies the assembly options by the analytic hierarchy process (AHP) model and the multi...

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Main Authors: Beni eLew, Lolita eTrachtengertz, Shany eRatsin, Gideon eOron, Amos eBick
Format: Article
Language:English
Published: Frontiers Media S.A. 2014-12-01
Series:Frontiers in Environmental Science
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fenvs.2014.00056/full
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spelling doaj-8e2f89cc9c624bdd85f7b3e17049f5be2020-11-24T21:04:21ZengFrontiers Media S.A.Frontiers in Environmental Science2296-665X2014-12-01210.3389/fenvs.2014.00056113301Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scalingBeni eLew0Beni eLew1Lolita eTrachtengertz2Shany eRatsin3Gideon eOron4Amos eBick5Agriculture Research Organization- IsraelAriel UniversityShenkar College of Engineering and DesignShenkar College of Engineering and DesignBen-Gurion University of the NegevBick & AssociatesThe recent high demands for reuse of salty water for irrigation affected membrane producers to assess new potential technologies for undesirable physical, chemical and biological contaminants removal. This paper studies the assembly options by the analytic hierarchy process (AHP) model and the multi-dimension scaling (MDS) techniques. A specialized form of MDS (CoPlot software) enables presentation of the AHP outcomes in a two dimensional space and the optimal model can be visualized clearly. Four types of 8 membranes were selected: (i) Nanofiltration low rejection and high flux (ESNA1-LF-LD, 86% rejection, 10,500gpd); (ii) Nanofiltration medium rejection and medium flux (ESNA1-LF2-LD, 91% rejection, 8,200gpd); (iii) Reverse Osmosis high rejection and high flux (CPA5-MAX, 99.7 rejection, 12,000gpd) ; and (iv) Reverse Osmosis medium rejection and extreme high flux (ESPA4-MAX, 99.2 rejection, 13,200gpd). The results indicate that: (i) Nanofiltration membrane (High flux and Low rejection) can produce water for irrigation with valuable levels of nutrient ions and a reduction in the sodium absorption ratio (SAR), minimizing soil salinity; this is an attractive option for agricultural irrigation and is the optimal solution; and (ii) implementing the MDS approach with reference to the variables is consequently useful to characterize membrane system design.http://journal.frontiersin.org/Journal/10.3389/fenvs.2014.00056/fullirrigationAnalytical hierarchical processNanofiltrationMulti-Dimension ScalingReverse-Osmosis
collection DOAJ
language English
format Article
sources DOAJ
author Beni eLew
Beni eLew
Lolita eTrachtengertz
Shany eRatsin
Gideon eOron
Amos eBick
spellingShingle Beni eLew
Beni eLew
Lolita eTrachtengertz
Shany eRatsin
Gideon eOron
Amos eBick
Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scaling
Frontiers in Environmental Science
irrigation
Analytical hierarchical process
Nanofiltration
Multi-Dimension Scaling
Reverse-Osmosis
author_facet Beni eLew
Beni eLew
Lolita eTrachtengertz
Shany eRatsin
Gideon eOron
Amos eBick
author_sort Beni eLew
title Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scaling
title_short Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scaling
title_full Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scaling
title_fullStr Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scaling
title_full_unstemmed Brackish groundwater membrane system design for sustainable irrigation: Optimal configuration selection using analytic hierarchy process and multi-dimension scaling
title_sort brackish groundwater membrane system design for sustainable irrigation: optimal configuration selection using analytic hierarchy process and multi-dimension scaling
publisher Frontiers Media S.A.
series Frontiers in Environmental Science
issn 2296-665X
publishDate 2014-12-01
description The recent high demands for reuse of salty water for irrigation affected membrane producers to assess new potential technologies for undesirable physical, chemical and biological contaminants removal. This paper studies the assembly options by the analytic hierarchy process (AHP) model and the multi-dimension scaling (MDS) techniques. A specialized form of MDS (CoPlot software) enables presentation of the AHP outcomes in a two dimensional space and the optimal model can be visualized clearly. Four types of 8 membranes were selected: (i) Nanofiltration low rejection and high flux (ESNA1-LF-LD, 86% rejection, 10,500gpd); (ii) Nanofiltration medium rejection and medium flux (ESNA1-LF2-LD, 91% rejection, 8,200gpd); (iii) Reverse Osmosis high rejection and high flux (CPA5-MAX, 99.7 rejection, 12,000gpd) ; and (iv) Reverse Osmosis medium rejection and extreme high flux (ESPA4-MAX, 99.2 rejection, 13,200gpd). The results indicate that: (i) Nanofiltration membrane (High flux and Low rejection) can produce water for irrigation with valuable levels of nutrient ions and a reduction in the sodium absorption ratio (SAR), minimizing soil salinity; this is an attractive option for agricultural irrigation and is the optimal solution; and (ii) implementing the MDS approach with reference to the variables is consequently useful to characterize membrane system design.
topic irrigation
Analytical hierarchical process
Nanofiltration
Multi-Dimension Scaling
Reverse-Osmosis
url http://journal.frontiersin.org/Journal/10.3389/fenvs.2014.00056/full
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