Stability and power-flow control of a multi-machine power system connected with a hybrid offshore wind farm using a unified power-flow controller

Abstract

This paper presents the stability and power-flow control results of a multi-machine power system connected with a hybrid offshore wind farm (OWF) of 160 MW through a unified power-flow controller (UPFC). The q-d axis equivalent-circuit model is employed to establish the complete system model of the integration of the hybrid OWF, UPFC and the multi-machine power system under three-phase balanced loading conditions. Steady-state performance of the proposed UPFC on power-flow control of the studied system is evaluated. Transient simulation results under a three-phase short-circuit fault are also performed. It can be concluded from the simulation results that the proposed UPFC can achieve power-flow control and render damping to suppress oscillations of the studied multi-machine power system connected with the hybrid OWF under various operating conditions.

Original language	English
Title of host publication	Conference Record - 2016 IEEE/IAS 52nd Industrial and Commercial Power Systems Technical Conference, I and CPS 2016
Publisher	Institute of Electrical and Electronics Engineers Inc.
Volume	2016-June
ISBN (Electronic)	9781467386715
DOIs	https://doi.org/10.1109/ICPS.2016.7490251
Publication status	Published - 10 Jun 2016
Event	52nd IEEE/IAS Industrial and Commercial Power Systems Technical Conference, I and CPS 2016 - Detroit, United States Duration: 1 May 2016 → 5 May 2016

Conference

Conference	52nd IEEE/IAS Industrial and Commercial Power Systems Technical Conference, I and CPS 2016
Country	United States
City	Detroit
Period	1.5.16 → 5.5.16

Keywords

multi-machine power system
offshore wind farm
power-flow control
transient simulations
Transient stability
unified power-flow controller

ASJC Scopus subject areas

Engineering(all)

Access to Document

10.1109/ICPS.2016.7490251

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Wang, L., Ke, S. C., & Prokhorov, A. V. (2016). Stability and power-flow control of a multi-machine power system connected with a hybrid offshore wind farm using a unified power-flow controller. In Conference Record - 2016 IEEE/IAS 52nd Industrial and Commercial Power Systems Technical Conference, I and CPS 2016 (Vol. 2016-June). [7490251] Institute of Electrical and Electronics Engineers Inc.. https://doi.org/10.1109/ICPS.2016.7490251

Stability and power-flow control of a multi-machine power system connected with a hybrid offshore wind farm using a unified power-flow controller. / Wang, Li; Ke, Shun Chin; Prokhorov, Anton V.

Conference Record - 2016 IEEE/IAS 52nd Industrial and Commercial Power Systems Technical Conference, I and CPS 2016. Vol. 2016-June Institute of Electrical and Electronics Engineers Inc., 2016. 7490251.

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution

Wang, L, Ke, SC & Prokhorov, AV 2016, Stability and power-flow control of a multi-machine power system connected with a hybrid offshore wind farm using a unified power-flow controller. in Conference Record - 2016 IEEE/IAS 52nd Industrial and Commercial Power Systems Technical Conference, I and CPS 2016. vol. 2016-June, 7490251, Institute of Electrical and Electronics Engineers Inc., 52nd IEEE/IAS Industrial and Commercial Power Systems Technical Conference, I and CPS 2016, Detroit, United States, 1.5.16. https://doi.org/10.1109/ICPS.2016.7490251

Wang L, Ke SC, Prokhorov AV. Stability and power-flow control of a multi-machine power system connected with a hybrid offshore wind farm using a unified power-flow controller. In Conference Record - 2016 IEEE/IAS 52nd Industrial and Commercial Power Systems Technical Conference, I and CPS 2016. Vol. 2016-June. Institute of Electrical and Electronics Engineers Inc. 2016. 7490251 https://doi.org/10.1109/ICPS.2016.7490251

Wang, Li ; Ke, Shun Chin ; Prokhorov, Anton V. / Stability and power-flow control of a multi-machine power system connected with a hybrid offshore wind farm using a unified power-flow controller. Conference Record - 2016 IEEE/IAS 52nd Industrial and Commercial Power Systems Technical Conference, I and CPS 2016. Vol. 2016-June Institute of Electrical and Electronics Engineers Inc., 2016.

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abstract = "This paper presents the stability and power-flow control results of a multi-machine power system connected with a hybrid offshore wind farm (OWF) of 160 MW through a unified power-flow controller (UPFC). The q-d axis equivalent-circuit model is employed to establish the complete system model of the integration of the hybrid OWF, UPFC and the multi-machine power system under three-phase balanced loading conditions. Steady-state performance of the proposed UPFC on power-flow control of the studied system is evaluated. Transient simulation results under a three-phase short-circuit fault are also performed. It can be concluded from the simulation results that the proposed UPFC can achieve power-flow control and render damping to suppress oscillations of the studied multi-machine power system connected with the hybrid OWF under various operating conditions.",

keywords = "multi-machine power system, offshore wind farm, power-flow control, transient simulations, Transient stability, unified power-flow controller",

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AB - This paper presents the stability and power-flow control results of a multi-machine power system connected with a hybrid offshore wind farm (OWF) of 160 MW through a unified power-flow controller (UPFC). The q-d axis equivalent-circuit model is employed to establish the complete system model of the integration of the hybrid OWF, UPFC and the multi-machine power system under three-phase balanced loading conditions. Steady-state performance of the proposed UPFC on power-flow control of the studied system is evaluated. Transient simulation results under a three-phase short-circuit fault are also performed. It can be concluded from the simulation results that the proposed UPFC can achieve power-flow control and render damping to suppress oscillations of the studied multi-machine power system connected with the hybrid OWF under various operating conditions.

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