Fast frequency response for effective frequency control in power systems with low inertia

Qiteng Hong, Marcel Nedd, Seán Norris, Ibrahim Faiek Abdulhadi, Mazaher Karimi, Vladimir Terzija, Benjamin Marshall, Keith Bell, Campbell Booth

Research output: Contribution to journalArticle

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Abstract

The increasing penetration of renewable generation has led to the decrease of power systems’ overall inertia, which introduces significant challenges to frequency stability. In this paper, the potential of using Fast Frequency Response (FFR) to enhance frequency control in power systems with low inertia is investigated in detail. A Generic System Frequency Response (GSFR) model taking into account of the penetration level of Non-Synchronous Generation (NSG) and FFR has been developed and used to investigate the impact of reduced inertia on frequency control and demonstrate that the amount of reserve power to be scheduled can be significantly reduced with the deployment of FFR. The impact of the different FFR resources' characteristics (e.g. response delay, ramp rate, etc.) on the effectiveness of frequency control is also investigated, based on which the desirable specifications for FFR schemes are summarised. These desirable properties of FFR schemes are taken into account in the design of a wide-area monitoring and control system termed ‘Enhanced Frequency Control Capability (EFCC)’, which is proposed for the delivery of FFR in the future Great Britain transmission system. The design and operation of the EFCC scheme are presented, along with a case study demonstrating its effectiveness in enhancing the frequency control.
Original languageEnglish
Number of pages8
JournalThe Journal of Engineering
Early online date23 Oct 2018
DOIs
Publication statusE-pub ahead of print - 23 Oct 2018

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Frequency response
Frequency stability
Specifications
Control systems
Monitoring

Keywords

  • power systems
  • low inertia power system
  • frequency control
  • frequency stability

Cite this

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title = "Fast frequency response for effective frequency control in power systems with low inertia",
abstract = "The increasing penetration of renewable generation has led to the decrease of power systems’ overall inertia, which introduces significant challenges to frequency stability. In this paper, the potential of using Fast Frequency Response (FFR) to enhance frequency control in power systems with low inertia is investigated in detail. A Generic System Frequency Response (GSFR) model taking into account of the penetration level of Non-Synchronous Generation (NSG) and FFR has been developed and used to investigate the impact of reduced inertia on frequency control and demonstrate that the amount of reserve power to be scheduled can be significantly reduced with the deployment of FFR. The impact of the different FFR resources' characteristics (e.g. response delay, ramp rate, etc.) on the effectiveness of frequency control is also investigated, based on which the desirable specifications for FFR schemes are summarised. These desirable properties of FFR schemes are taken into account in the design of a wide-area monitoring and control system termed ‘Enhanced Frequency Control Capability (EFCC)’, which is proposed for the delivery of FFR in the future Great Britain transmission system. The design and operation of the EFCC scheme are presented, along with a case study demonstrating its effectiveness in enhancing the frequency control.",
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Fast frequency response for effective frequency control in power systems with low inertia. / Hong, Qiteng; Nedd, Marcel; Norris, Seán; Abdulhadi, Ibrahim Faiek; Karimi, Mazaher; Terzija, Vladimir; Marshall, Benjamin; Bell, Keith; Booth, Campbell.

In: The Journal of Engineering, 23.10.2018.

Research output: Contribution to journalArticle

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AU - Hong, Qiteng

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AU - Norris, Seán

AU - Abdulhadi, Ibrahim Faiek

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AU - Marshall, Benjamin

AU - Bell, Keith

AU - Booth, Campbell

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