Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques

The wide utilization of gas-fired generation and the rapid development of power-to-gas technologies have led to the intensified integration of electricity and gas systems. The random failures of components in either electricity or gas system may have a considerable impact on the reliabilities of bot...

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Main Authors: Sheng Wang, Yi Ding, Chengjin Ye, Can Wan, Yuchang Mo
Format: Article
Language:English
Published: IEEE 2019-01-01
Series:Journal of Modern Power Systems and Clean Energy
Subjects:
Online Access:https://ieeexplore.ieee.org/document/8964533/
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spelling doaj-a81b57c5476049a8aa437ea91d3d77802021-04-23T16:13:58ZengIEEEJournal of Modern Power Systems and Clean Energy2196-54202019-01-01761523153510.1007/s40565-019-0566-x8964533Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniquesSheng Wang0Yi Ding1Chengjin Ye2Can Wan3Yuchang Mo4College of Electrical Engineering, Zhejiang University,Hangzhou,ChinaCollege of Electrical Engineering, Zhejiang University,Hangzhou,ChinaCollege of Electrical Engineering, Zhejiang University,Hangzhou,ChinaCollege of Electrical Engineering, Zhejiang University,Hangzhou,ChinaSchool of Mathematical Sciences, Huaqiao University,Quanzhou,ChinaThe wide utilization of gas-fired generation and the rapid development of power-to-gas technologies have led to the intensified integration of electricity and gas systems. The random failures of components in either electricity or gas system may have a considerable impact on the reliabilities of both systems. Therefore, it is necessary to evaluate the reliabilities of electricity and gas systems considering their integration. In this paper, a novel reliability evaluation method for integrated electricity–gas systems (IEGSs) is proposed. First, reliability network equivalents are utilized to represent reliability models of gas-fired generating units, gas sources (GSs), power-to-gas facilities, and other conventional generating units in IEGS. A contingency management schema is then developed considering the coupling between electricity and gas systems based on an optimal power flow technique. Finally, the time-sequential Monte Carlo simulation approach is used to model the chronological characteristics of the corresponding reliability network equivalents. The proposed method is capable to evaluate customers' reliabilities in IEGS, which is illustrated on an integrated IEEE Reliability Test System and Belgium gas transmission system.https://ieeexplore.ieee.org/document/8964533/Integrated electricity–gas systemIntegrated electricity and gas optimal power flowReliability network equivalentTime-sequential Monte Carlo simulation
collection DOAJ
language English
format Article
sources DOAJ
author Sheng Wang
Yi Ding
Chengjin Ye
Can Wan
Yuchang Mo
spellingShingle Sheng Wang
Yi Ding
Chengjin Ye
Can Wan
Yuchang Mo
Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques
Journal of Modern Power Systems and Clean Energy
Integrated electricity–gas system
Integrated electricity and gas optimal power flow
Reliability network equivalent
Time-sequential Monte Carlo simulation
author_facet Sheng Wang
Yi Ding
Chengjin Ye
Can Wan
Yuchang Mo
author_sort Sheng Wang
title Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques
title_short Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques
title_full Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques
title_fullStr Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques
title_full_unstemmed Reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques
title_sort reliability evaluation of integrated electricity–gas system utilizing network equivalent and integrated optimal power flow techniques
publisher IEEE
series Journal of Modern Power Systems and Clean Energy
issn 2196-5420
publishDate 2019-01-01
description The wide utilization of gas-fired generation and the rapid development of power-to-gas technologies have led to the intensified integration of electricity and gas systems. The random failures of components in either electricity or gas system may have a considerable impact on the reliabilities of both systems. Therefore, it is necessary to evaluate the reliabilities of electricity and gas systems considering their integration. In this paper, a novel reliability evaluation method for integrated electricity–gas systems (IEGSs) is proposed. First, reliability network equivalents are utilized to represent reliability models of gas-fired generating units, gas sources (GSs), power-to-gas facilities, and other conventional generating units in IEGS. A contingency management schema is then developed considering the coupling between electricity and gas systems based on an optimal power flow technique. Finally, the time-sequential Monte Carlo simulation approach is used to model the chronological characteristics of the corresponding reliability network equivalents. The proposed method is capable to evaluate customers' reliabilities in IEGS, which is illustrated on an integrated IEEE Reliability Test System and Belgium gas transmission system.
topic Integrated electricity–gas system
Integrated electricity and gas optimal power flow
Reliability network equivalent
Time-sequential Monte Carlo simulation
url https://ieeexplore.ieee.org/document/8964533/
work_keys_str_mv AT shengwang reliabilityevaluationofintegratedelectricityx2013gassystemutilizingnetworkequivalentandintegratedoptimalpowerflowtechniques
AT yiding reliabilityevaluationofintegratedelectricityx2013gassystemutilizingnetworkequivalentandintegratedoptimalpowerflowtechniques
AT chengjinye reliabilityevaluationofintegratedelectricityx2013gassystemutilizingnetworkequivalentandintegratedoptimalpowerflowtechniques
AT canwan reliabilityevaluationofintegratedelectricityx2013gassystemutilizingnetworkequivalentandintegratedoptimalpowerflowtechniques
AT yuchangmo reliabilityevaluationofintegratedelectricityx2013gassystemutilizingnetworkequivalentandintegratedoptimalpowerflowtechniques
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