Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIP

Abstract Hydrogen‐based energy systems (HESs) have shown great potential to promote the process of decarbonization. Conventional studies mainly focus on the sizing and operation of HESs in a determined static situation, and the dynamic planning model of HESs considering large‐scale uncertain scenari...

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Main Authors: Binrui Cao, Xiong Wu, Bingwen Liu, Xiuli Wang, Penglei Wang, Yunyi Wu
Format: Article
Language:English
Published: Wiley 2023-07-01
Series:IET Generation, Transmission & Distribution
Subjects:
Online Access:https://doi.org/10.1049/gtd2.12863
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author Binrui Cao
Xiong Wu
Bingwen Liu
Xiuli Wang
Penglei Wang
Yunyi Wu
author_facet Binrui Cao
Xiong Wu
Bingwen Liu
Xiuli Wang
Penglei Wang
Yunyi Wu
author_sort Binrui Cao
collection DOAJ
description Abstract Hydrogen‐based energy systems (HESs) have shown great potential to promote the process of decarbonization. Conventional studies mainly focus on the sizing and operation of HESs in a determined static situation, and the dynamic planning model of HESs considering large‐scale uncertain scenarios of future developments should be considered. This paper proposes a multi‐stage stochastic programming (MSP) long‐term planning model to find the optimal sequential planning results of the grid‐connected HES. The planning model considers the long‐term uncertainties of the investment cost decrease and the load increase. Additionally, the short‐term uncertainties of renewable energies are also considered to obtain robust results in each stage. The improved stochastic dual dynamic integer programming (SDDIP) is then employed to solve the MSP long‐term planning model with consideration of the realized uncertainties. Specifically, the sequential planning order is developed to improve the efficiency of the SDDIP. Numerical case studies are constructed to show the convergence process of the improved SDDIP and the planning results of the HES. Moreover, the improved SDDIP shows greater efficiency compared with the traditional SDDIP and the method which solves the model directly.
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spelling doaj.art-29a61b2236754751b12b39aa5640d9702023-07-04T04:39:15ZengWileyIET Generation, Transmission & Distribution1751-86871751-86952023-07-0117133016302910.1049/gtd2.12863Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIPBinrui Cao0Xiong Wu1Bingwen Liu2Xiuli Wang3Penglei Wang4Yunyi Wu5School of Electrical Engineering Xi'an Jiaotong University Xi'an ChinaSchool of Electrical Engineering Xi'an Jiaotong University Xi'an ChinaSchool of Electrical Engineering Xi'an Jiaotong University Xi'an ChinaSchool of Electrical Engineering Xi'an Jiaotong University Xi'an ChinaChina Three Gorges Corporation Beijing ChinaChina Three Gorges Corporation Beijing ChinaAbstract Hydrogen‐based energy systems (HESs) have shown great potential to promote the process of decarbonization. Conventional studies mainly focus on the sizing and operation of HESs in a determined static situation, and the dynamic planning model of HESs considering large‐scale uncertain scenarios of future developments should be considered. This paper proposes a multi‐stage stochastic programming (MSP) long‐term planning model to find the optimal sequential planning results of the grid‐connected HES. The planning model considers the long‐term uncertainties of the investment cost decrease and the load increase. Additionally, the short‐term uncertainties of renewable energies are also considered to obtain robust results in each stage. The improved stochastic dual dynamic integer programming (SDDIP) is then employed to solve the MSP long‐term planning model with consideration of the realized uncertainties. Specifically, the sequential planning order is developed to improve the efficiency of the SDDIP. Numerical case studies are constructed to show the convergence process of the improved SDDIP and the planning results of the HES. Moreover, the improved SDDIP shows greater efficiency compared with the traditional SDDIP and the method which solves the model directly.https://doi.org/10.1049/gtd2.12863distribution planning and operationhydrogen storagemulti‐stage planning model
spellingShingle Binrui Cao
Xiong Wu
Bingwen Liu
Xiuli Wang
Penglei Wang
Yunyi Wu
Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIP
IET Generation, Transmission & Distribution
distribution planning and operation
hydrogen storage
multi‐stage planning model
title Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIP
title_full Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIP
title_fullStr Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIP
title_full_unstemmed Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIP
title_short Multi‐stage stochastic long‐term planning of grid‐connected hydrogen‐based energy system based on improved SDDIP
title_sort multi stage stochastic long term planning of grid connected hydrogen based energy system based on improved sddip
topic distribution planning and operation
hydrogen storage
multi‐stage planning model
url https://doi.org/10.1049/gtd2.12863
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