Joint Generation and Water Desalination Expansion Planning

ABSTRACT Infrastructure expansion planning is the process of deciding what, where, and when to build to meet the future needs. In some arid regions, with severe freshwater scarcity, water is produced via desalination. Since desalination is an energy intensive process, this leads to a high level of interdependence between the water and energy systems. Traditionally, the two systems are planned for separately and sometimes even operated with little to no coordination. The lack of coordination leads to inefficiencies that can be eliminated with better models. This paper contributes in developing a joint generation‐water expansion planning model that incorporates the interdependence between the two systems, and thus finds a superior plan. To develop the model, power and water operational constraints are implemented linking both system in planning and operations levels. The paper quantifies energy consumption needs of both thermal and membrane desalination processes. Furthermore, the paper establishes a water consumption duration curve to model the correlation between water and power demand. Simulation studies are presented on a modified IEEE RTS system. This proposed joint planning and operations model was compared to a separate generation‐water planning and operations modeling method to show the out performance the joint model offers.

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Publication Details

Journal
IET Generation Transmission & Distribution
Published
2025-01-01
DOI
https://doi.org/10.1049/gtd2.70133
Primary Topic
Water-Energy-Food Nexus Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Joint Generation and Water Desalination Expansion Planning

Mostafa Sahraei‐Ardakani, Yousef M. Al-Abdullah, Mahdi Al-Saffar
IET Generation Transmission & Distribution
Water-Energy-Food Nexus Studies
article

Joint Generation and Water Desalination Expansion Planning

Mostafa Sahraei‐Ardakani, Yousef M. Al-Abdullah, Mahdi Al-Saffar
article en

Abstract

ABSTRACT Infrastructure expansion planning is the process of deciding what, where, and when to build to meet the future needs. In some arid regions, with severe freshwater scarcity, water is produced via desalination. Since desalination is an energy intensive process, this leads to a high level of interdependence between the water and energy systems. Traditionally, the two systems are planned for separately and sometimes even operated with little to no coordination. The lack of coordination leads to inefficiencies that can be eliminated with better models. This paper contributes in developing a joint generation‐water expansion planning model that incorporates the interdependence between the two systems, and thus finds a superior plan. To develop the model, power and water operational constraints are implemented linking both system in planning and operations levels. The paper quantifies energy consumption needs of both thermal and membrane desalination processes. Furthermore, the paper establishes a water consumption duration curve to model the correlation between water and power demand. Simulation studies are presented on a modified IEEE RTS system. This proposed joint planning and operations model was compared to a separate generation‐water planning and operations modeling method to show the out performance the joint model offers.

IET Generation Transmission & DistributionVol. 19(1)
University of Utah (US), Kuwait Institute for Scientific Research (KW)
Kuwait Institute for Scientific Research
Openalex Percentile: Top 82%
Water-Energy-Food Nexus Studies
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