University of Wollongong
Browse

File(s) not publicly available

A multi-mode control strategy for VAr support by solar PV inverters in distribution networks

journal contribution
posted on 2024-11-16, 08:55 authored by Md Jan E Alam, Kashem MuttaqiKashem Muttaqi, Darmawan SoetantoDarmawan Soetanto
1969-2012 IEEE. This paper proposes a multi-purpose VAr control strategy for solar PV inverters for voltage support in distribution networks. The proposed strategy can be applied under various PV power generation conditions. The inverters will normally operate in a dynamic VAr compensation mode for voltage support (including low PV and no PV periods). During mid-day when PV has surplus power, the proposed strategy will control the PV inverters to absorb VAr for voltage rise mitigation using a droop characteristic approach. During passing clouds, the strategy will mitigate voltage fluctuations by ramp-rate control of inverter VAr output. A dynamic model of the proposed PV inverter control has been developed to analyze its performance in terms of fast VAr control and voltage support under various PV generation conditions. The results of the analysis performed on an Australian distribution system show that the proposed VAr control strategy can mitigate voltage rise, and improve the voltage profile despite potential vast changes in the sun irradiation during passing cloud and also in the absence of PV output during the evening.

Funding

Integration of Solar, Wind and Storage Systems into Distribution Grids for Network Support

Australian Research Council

Find out more...

History

Citation

M. Alam, K. M. Muttaqi & D. Sutanto, "A multi-mode control strategy for VAr support by solar PV inverters in distribution networks," IEEE Transactions on Power Systems, vol. 30, (3) pp. 1316-1326, 2015.

Journal title

IEEE Transactions on Power Systems

Volume

30

Issue

3

Pagination

1316-1326

Language

English

RIS ID

100430

Usage metrics

    Categories

    Exports

    RefWorks
    BibTeX
    Ref. manager
    Endnote
    DataCite
    NLM
    DC