Modeling water and hydrogen networks with partitioning regeneration units

Strict environment regulations in chemical and refinery industries lead to minimize resource consumption by designing utility networks within industrial process plants. The present study proposed a superstructure based optimization model for the synthesis of water and hydrogen networks with partitio...

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Main Authors: W.M. Shehata, A.M. Shoaib, F.K. Gad
Format: Article
Language:English
Published: Elsevier 2015-03-01
Series:Egyptian Journal of Petroleum
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S1110062115000100
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spelling doaj-8a5462ddae8e426bbdc5dc608699ab8e2020-11-24T21:01:29ZengElsevierEgyptian Journal of Petroleum1110-06212015-03-01241778510.1016/j.ejpe.2015.02.008Modeling water and hydrogen networks with partitioning regeneration unitsW.M. ShehataA.M. ShoaibF.K. GadStrict environment regulations in chemical and refinery industries lead to minimize resource consumption by designing utility networks within industrial process plants. The present study proposed a superstructure based optimization model for the synthesis of water and hydrogen networks with partitioning regenerators without mixing the regenerated sources. This method determines the number of partitioning regenerators needed for the regeneration of the sources. The number of the regenerators is based on the number of sources required to be treated for recovery. Each source is regenerated in an individual partitioning regenerator. Multiple regeneration systems can be employed to achieve minimum flowrate and costs. The formulation is linear in the regenerator balance equations. The optimized model is applied for two systems, partitioning regeneration systems of the fixed outlet impurity concentration and partitioning regeneration systems of the fixed impurity load removal ratio (RR) for water and hydrogen networks. Several case studies from the literature are solved to illustrate the ease and applicability of the proposed method.http://www.sciencedirect.com/science/article/pii/S1110062115000100Water regenerationWater networkHydrogen networkPartitioning regeneratorProcess integration
collection DOAJ
language English
format Article
sources DOAJ
author W.M. Shehata
A.M. Shoaib
F.K. Gad
spellingShingle W.M. Shehata
A.M. Shoaib
F.K. Gad
Modeling water and hydrogen networks with partitioning regeneration units
Egyptian Journal of Petroleum
Water regeneration
Water network
Hydrogen network
Partitioning regenerator
Process integration
author_facet W.M. Shehata
A.M. Shoaib
F.K. Gad
author_sort W.M. Shehata
title Modeling water and hydrogen networks with partitioning regeneration units
title_short Modeling water and hydrogen networks with partitioning regeneration units
title_full Modeling water and hydrogen networks with partitioning regeneration units
title_fullStr Modeling water and hydrogen networks with partitioning regeneration units
title_full_unstemmed Modeling water and hydrogen networks with partitioning regeneration units
title_sort modeling water and hydrogen networks with partitioning regeneration units
publisher Elsevier
series Egyptian Journal of Petroleum
issn 1110-0621
publishDate 2015-03-01
description Strict environment regulations in chemical and refinery industries lead to minimize resource consumption by designing utility networks within industrial process plants. The present study proposed a superstructure based optimization model for the synthesis of water and hydrogen networks with partitioning regenerators without mixing the regenerated sources. This method determines the number of partitioning regenerators needed for the regeneration of the sources. The number of the regenerators is based on the number of sources required to be treated for recovery. Each source is regenerated in an individual partitioning regenerator. Multiple regeneration systems can be employed to achieve minimum flowrate and costs. The formulation is linear in the regenerator balance equations. The optimized model is applied for two systems, partitioning regeneration systems of the fixed outlet impurity concentration and partitioning regeneration systems of the fixed impurity load removal ratio (RR) for water and hydrogen networks. Several case studies from the literature are solved to illustrate the ease and applicability of the proposed method.
topic Water regeneration
Water network
Hydrogen network
Partitioning regenerator
Process integration
url http://www.sciencedirect.com/science/article/pii/S1110062115000100
work_keys_str_mv AT wmshehata modelingwaterandhydrogennetworkswithpartitioningregenerationunits
AT amshoaib modelingwaterandhydrogennetworkswithpartitioningregenerationunits
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