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Advanced hierarchical control and st...

Braitor, Andrei-Constantin.

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Advanced hierarchical control and stability analysis of DC microgrids

Record Type:	Electronic resources : Monograph/item
Title/Author:	Advanced hierarchical control and stability analysis of DC microgrids/ by Andrei-Constantin Braitor.
Author:	Braitor, Andrei-Constantin.
Published:	Cham :Springer International Publishing : : 2022.,
Description:	xxii, 172 p. :ill. (some col.), digital ;24 cm.
[NT 15003449]:	Introduction -- Literature review -- Notations and theoretical preliminaries -- Admittance matrix computation and stability analysis of droopcontrolled DC microgrids -- Control design and stability analysis of DC microgrids consisting of unidirectional DC/DC boost converters -- Stability analysis of parallel-operated bidirectional AC/DC and DC/DC converters -- Stability analysis of DC microgrids under decentralised primary and distributed secondary control -- Droop-controlled DC microgrids with overvoltage protection -- Conclusions.
Contained By:	Springer Nature eBook
Subject:	Microgrids (Smart power grids) -
Online resource:	https://doi.org/10.1007/978-3-030-95415-4
ISBN:	9783030954154

Advanced hierarchical control and stability analysis of DC microgrids
Braitor, Andrei-Constantin.

Advanced hierarchical control and stability analysis of DC microgrids[electronic resource] /by Andrei-Constantin Braitor. - Cham :Springer International Publishing :2022. - xxii, 172 p. :ill. (some col.), digital ;24 cm. - Springer theses,2190-5061. - Springer theses..

Introduction -- Literature review -- Notations and theoretical preliminaries -- Admittance matrix computation and stability analysis of droopcontrolled DC microgrids -- Control design and stability analysis of DC microgrids consisting of unidirectional DC/DC boost converters -- Stability analysis of parallel-operated bidirectional AC/DC and DC/DC converters -- Stability analysis of DC microgrids under decentralised primary and distributed secondary control -- Droop-controlled DC microgrids with overvoltage protection -- Conclusions.

This book introduces several novel contributions into the current literature. Firstly, given that microgrid topologies are paramount in theoretical analysis, the author has proposed a rigorous method of computing the network's admittance matrix and developed to facilitate the stability analysis of DC microgrids supplying nonlinear loads. This unique approach enabled the factorisation of the admittance matrix in a particular way that facilitates a rigorous theoretical analysis for deriving the stability conditions. Secondly, author has proposed a unified control structure at the primary control layer that maintains the widely accepted droop-based approaches and additionally ensures crucial current- and voltage-limiting properties, thus offering an inherent protection to distributed energy resources. He has formalised the control design proofs using Lyapunov methods and nonlinear ultimate boundedness theory, for both parallel and meshed microgrid configurations. Moreover, he has developed a distributed secondary controller using a diffusive coupling communication network, on top of the primary control, to achieve voltage restoration and improve the power sharing. In this way, the author has formulated the complete hierarchical control scheme. In this high-order nonlinear setting, he has analytically proven closed-loop system stability of the overall system, for the first time, using two-time scale approaches and singular perturbation theory, by formulating rigorous theorems that introduce straightforward conditions that guide the system and control design and demonstrate system stability at the desired equilibrium point. In addition, the author has provided a straightforward algorithm for simple testing of system stability and explored from a graphical perspective by giving an interpretation to the effect of the nonlinear load onto the system performance and stability.

ISBN: 9783030954154

Standard No.: 10.1007/978-3-030-95415-4doiSubjects--Topical Terms:

3383030
Microgrids (Smart power grids)

LC Class. No.: TK3106 / .B73 2022

Dewey Class. No.: 621.31912

Advanced hierarchical control and stability analysis of DC microgrids
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245 1 0 $a Advanced hierarchical control and stability analysis of DC microgrids $h [electronic resource] / $c by Andrei-Constantin Braitor.
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300 $a xxii, 172 p. : $b ill. (some col.), digital ; $c 24 cm.
490 1 $a Springer theses, $x 2190-5061
505 0 $a Introduction -- Literature review -- Notations and theoretical preliminaries -- Admittance matrix computation and stability analysis of droopcontrolled DC microgrids -- Control design and stability analysis of DC microgrids consisting of unidirectional DC/DC boost converters -- Stability analysis of parallel-operated bidirectional AC/DC and DC/DC converters -- Stability analysis of DC microgrids under decentralised primary and distributed secondary control -- Droop-controlled DC microgrids with overvoltage protection -- Conclusions.
520 $a This book introduces several novel contributions into the current literature. Firstly, given that microgrid topologies are paramount in theoretical analysis, the author has proposed a rigorous method of computing the network's admittance matrix and developed to facilitate the stability analysis of DC microgrids supplying nonlinear loads. This unique approach enabled the factorisation of the admittance matrix in a particular way that facilitates a rigorous theoretical analysis for deriving the stability conditions. Secondly, author has proposed a unified control structure at the primary control layer that maintains the widely accepted droop-based approaches and additionally ensures crucial current- and voltage-limiting properties, thus offering an inherent protection to distributed energy resources. He has formalised the control design proofs using Lyapunov methods and nonlinear ultimate boundedness theory, for both parallel and meshed microgrid configurations. Moreover, he has developed a distributed secondary controller using a diffusive coupling communication network, on top of the primary control, to achieve voltage restoration and improve the power sharing. In this way, the author has formulated the complete hierarchical control scheme. In this high-order nonlinear setting, he has analytically proven closed-loop system stability of the overall system, for the first time, using two-time scale approaches and singular perturbation theory, by formulating rigorous theorems that introduce straightforward conditions that guide the system and control design and demonstrate system stability at the desired equilibrium point. In addition, the author has provided a straightforward algorithm for simple testing of system stability and explored from a graphical perspective by giving an interpretation to the effect of the nonlinear load onto the system performance and stability.
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