Study and modelling of droop-controlled islanded mesh microgrids

The active and reactive power sharing of distributed generation sources (DGs) connected to isolated microgrids with a single point of common coupling (mono-PCC) to which the loads are also connected has already been the subject of several studies. A high penetration rate of DGs based on renewable en...

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Main Authors: Hennane Youssef, Berdai Abdelmajid, Pierfederici Serge, Meibody-Tabar Farid, Kuznetsov Vitaliy
Format: Article
Language:English
Published: EDP Sciences 2021-01-01
Series:E3S Web of Conferences
Online Access:https://www.e3s-conferences.org/articles/e3sconf/pdf/2021/56/e3sconf_icsf2021_05015.pdf
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author Hennane Youssef
Berdai Abdelmajid
Pierfederici Serge
Meibody-Tabar Farid
Kuznetsov Vitaliy
author_facet Hennane Youssef
Berdai Abdelmajid
Pierfederici Serge
Meibody-Tabar Farid
Kuznetsov Vitaliy
author_sort Hennane Youssef
collection DOAJ
description The active and reactive power sharing of distributed generation sources (DGs) connected to isolated microgrids with a single point of common coupling (mono-PCC) to which the loads are also connected has already been the subject of several studies. A high penetration rate of DGs based on renewable energies has as a logical consequence the development and implementation of mesh and more complex multi- PCC microgrids. In this paper, a developed droop control method for synchronization and power sharing between different DGs connected to a mesh islanded multi-PCC microgrid with many distributed generation sources (DGs) and different type of loads (including active load (CPL)) randomly connected to different PCCs is applied. Then, a state model of the entire mesh microgrid is developed integrating the generators with their controllers, power lines, droop algorithms and dynamic loads. This model is then used to study the asymptotic stability and robustness properties of the system. The simulation results confirm the effectiveness of the applied strategies for the synchronization of the different DGs to the microgrid while ensuring an efficient active and reactive power sharing. also, they confirm the validity of the developed state space model of the system.
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spelling doaj.art-d209b12d355c4f2a81428d679eabf2a42022-12-21T21:32:24ZengEDP SciencesE3S Web of Conferences2267-12422021-01-012800501510.1051/e3sconf/202128005015e3sconf_icsf2021_05015Study and modelling of droop-controlled islanded mesh microgridsHennane YoussefBerdai Abdelmajid0Pierfederici Serge1Meibody-Tabar Farid2Kuznetsov Vitaliy3CEDoc Sciences de l’Ingénieur ENSEM, LESE, Route d’El JadidaCEDoc Sciences de l’Ingénieur ENSEM, LESE, Route d’El JadidaUniversité de LorraineNational Metallurgical Academy of Ukraine, Department of the electrical engineering and electromechanicsThe active and reactive power sharing of distributed generation sources (DGs) connected to isolated microgrids with a single point of common coupling (mono-PCC) to which the loads are also connected has already been the subject of several studies. A high penetration rate of DGs based on renewable energies has as a logical consequence the development and implementation of mesh and more complex multi- PCC microgrids. In this paper, a developed droop control method for synchronization and power sharing between different DGs connected to a mesh islanded multi-PCC microgrid with many distributed generation sources (DGs) and different type of loads (including active load (CPL)) randomly connected to different PCCs is applied. Then, a state model of the entire mesh microgrid is developed integrating the generators with their controllers, power lines, droop algorithms and dynamic loads. This model is then used to study the asymptotic stability and robustness properties of the system. The simulation results confirm the effectiveness of the applied strategies for the synchronization of the different DGs to the microgrid while ensuring an efficient active and reactive power sharing. also, they confirm the validity of the developed state space model of the system.https://www.e3s-conferences.org/articles/e3sconf/pdf/2021/56/e3sconf_icsf2021_05015.pdf
spellingShingle Hennane Youssef
Berdai Abdelmajid
Pierfederici Serge
Meibody-Tabar Farid
Kuznetsov Vitaliy
Study and modelling of droop-controlled islanded mesh microgrids
E3S Web of Conferences
title Study and modelling of droop-controlled islanded mesh microgrids
title_full Study and modelling of droop-controlled islanded mesh microgrids
title_fullStr Study and modelling of droop-controlled islanded mesh microgrids
title_full_unstemmed Study and modelling of droop-controlled islanded mesh microgrids
title_short Study and modelling of droop-controlled islanded mesh microgrids
title_sort study and modelling of droop controlled islanded mesh microgrids
url https://www.e3s-conferences.org/articles/e3sconf/pdf/2021/56/e3sconf_icsf2021_05015.pdf
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