Skip to main content
placeholder image

Remote area power supply system: an integrated control approach based on active power balance

Journal Article


Abstract


  • This article presents a novel control strategy for a high-penetration, wind-based hybrid remote area power supply (RAPS) system. The proposed RAPS system consists of a permanent magnet synchronous generator (PMSG)-based variable-speed wind turbine and a battery energy storage system (ESS) with a dump load for dc bus voltage control and a diesel generator as a backup supply. An integrated control approach based on the active power balance of the proposed RAPS system has been proposed and developed to regulate the voltage and frequency within an acceptable bandwidth. The proposed integrated control algorithm is implemented by developing a controller for the individual system components in the RAPS system, including the wind energy conversion system, the diesel generator, the battery storage system, and the dump load, while coordinating their response to achieve optimal operation. The optimal operation for the proposed RAPS system is realized by operating the wind turbine generator (WTG) at its maximum power extraction mode while restricting the operation of the diesel generating system at low-load conditions. In addition to the detailed model, which mainly comprises nonlinear high-order characteristics of each system component, a linearized model of the RAPS system is presented to compare the active power sharing among the system components. Laboratory-based experimental tests have been conducted to validate the coordinated approach, and the results are presented in this article.

Publication Date


  • 2015

Citation


  • N. Mendis, K. Mohammad. Muttaqi, S. Perera & M. Nasir. Uddin, "Remote area power supply system: an integrated control approach based on active power balance," IEEE Industry Applications Magazine, vol. 21, (2) pp. 63-76, 2015. IEEE Industry Applications Magazine

Ro Metadata Url


  • http://ro.uow.edu.au/eispapers/3421

Number Of Pages


  • 13

Start Page


  • 63

End Page


  • 76

Volume


  • 21

Issue


  • 2

Abstract


  • This article presents a novel control strategy for a high-penetration, wind-based hybrid remote area power supply (RAPS) system. The proposed RAPS system consists of a permanent magnet synchronous generator (PMSG)-based variable-speed wind turbine and a battery energy storage system (ESS) with a dump load for dc bus voltage control and a diesel generator as a backup supply. An integrated control approach based on the active power balance of the proposed RAPS system has been proposed and developed to regulate the voltage and frequency within an acceptable bandwidth. The proposed integrated control algorithm is implemented by developing a controller for the individual system components in the RAPS system, including the wind energy conversion system, the diesel generator, the battery storage system, and the dump load, while coordinating their response to achieve optimal operation. The optimal operation for the proposed RAPS system is realized by operating the wind turbine generator (WTG) at its maximum power extraction mode while restricting the operation of the diesel generating system at low-load conditions. In addition to the detailed model, which mainly comprises nonlinear high-order characteristics of each system component, a linearized model of the RAPS system is presented to compare the active power sharing among the system components. Laboratory-based experimental tests have been conducted to validate the coordinated approach, and the results are presented in this article.

Publication Date


  • 2015

Citation


  • N. Mendis, K. Mohammad. Muttaqi, S. Perera & M. Nasir. Uddin, "Remote area power supply system: an integrated control approach based on active power balance," IEEE Industry Applications Magazine, vol. 21, (2) pp. 63-76, 2015. IEEE Industry Applications Magazine

Ro Metadata Url


  • http://ro.uow.edu.au/eispapers/3421

Number Of Pages


  • 13

Start Page


  • 63

End Page


  • 76

Volume


  • 21

Issue


  • 2