Resilience Enhancement of Microgrids With Inverter-Interfaced DGs by Enabling Faulty Phase Selection

The significant differences between the fault current signatures of inverter-interfaced distributed generators (IIDGs) and conventional synchronous generator-based sources can lead to misoperation of the existing phase selection methods that operate based on the angles of sequence currents. Conseque...

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Veröffentlicht in:IEEE transactions on smart grid 2018-11, Vol.9 (6), p.6578-6589
Hauptverfasser: Azzouz, Maher Abdelkhalek, Hooshyar, Ali, El-Saadany, Ehab F.
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creator Azzouz, Maher Abdelkhalek
Hooshyar, Ali
El-Saadany, Ehab F.
description The significant differences between the fault current signatures of inverter-interfaced distributed generators (IIDGs) and conventional synchronous generator-based sources can lead to misoperation of the existing phase selection methods that operate based on the angles of sequence currents. Consequently, a selective phase reclosing/tripping scheme cannot be applied by the protection system of a microgrid, resulting in reduced resilience during asymmetrical faults. This paper develops a dual control scheme that regulates the sequence components of an IIDG current during short-circuits such that the existing phase selection methods accurately select the faulty phase(s). The proposed scheme adds a controllable voltage source and a virtual impedance to the negative-sequence circuit of an IIDG model. These newly added components are tuned to make the sequence current angles of an IIDG during asymmetrical faults similar to those of an SG while thermal limits of inverter switches are satisfied. As a result, the protection system can trip only the faulty phase(s) and the microgrid resilience during unbalanced short-circuits is substantially improved. A comprehensive performance evaluation confirms the effectiveness of the proposed control scheme under different fault conditions.
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subjects Circuit faults
Current distribution
Distributed generation
Distributed generation control
Electric power grids
Fault diagnosis
fault resiliency
Impedance
Inverters
microgrid protection
Microgrids
Performance evaluation
phase selection
Relays
Resilience
Short circuits
Stability
Switches
Voltage control
title Resilience Enhancement of Microgrids With Inverter-Interfaced DGs by Enabling Faulty Phase Selection
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