Coordinated voltage control for multiple wind plants in Eastern Wyoming: Analysis and field experience

Miller, N.W.; MacDowell, Jason; Chmiel, Gary; Konopinski, Ryan; Gautam, Durga; Laughter, Grant; Hagen, D. H.

doi:10.1109/pemwa.2012.6316387

Cited by 22 publications

(7 citation statements)

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“…This is modelled uses a droop slope, where the prevailing reactive power operating point acts as linear bias on the connection point target voltage. This archetypal scheme [25] promotes smoother co-operation between adjacent voltage controllers, and its merits for wind farms have been demonstrated [26].…”

Section: ) Generator Voltage Controller Implementationmentioning

confidence: 97%

Voltage responsive distribution networks: Comparing autonomous and centralized solutions

Cuffe¹,

Keane²

2015

2015 IEEE Power &Amp; Energy Society General Meeting

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Section: ) Generator Voltage Controller Implementationmentioning

confidence: 97%

Voltage responsive distribution networks: Comparing autonomous and centralized solutions

Cuffe¹,

Keane²

2015

2015 IEEE Power &Amp; Energy Society General Meeting

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“…It is a functional model that has been validated in previous works [40]- [44] and has been used extensively in wind studies [10], [12], [45], [46]. In this paper, individual wind turbines are lumped into a large aggregated wind turbine [28], [47].…”

Section: A Wtg Modelmentioning

confidence: 99%

A Fundamental Study of Applying Wind Turbines for Power System Frequency Control

Wilches-Bernal

Chow

Sanchez-Gasca³

2016

IEEE Trans. Power Syst.

169

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As wind penetration increases in power systems around the world, new challenges to the controllability and operation of a power system are encountered. In particular, frequency response is impacted when a considerable amount of power-electronics interfaced generation, such as wind, is connected to the system. This paper uses small-signal analysis and dynamic simulation to study frequency response in power systems and investigate how Type-3 DFAG wind turbines can impact this response on a test power system, whose frequency response is determined mainly by a frequency-regulation mode. By operating the wind turbines in a deloaded mode, a proposed pitch-angle controller is designed using a root-locus analysis. Time simulations are used to demonstrate the transient and steady-state performance of the proposed controller in the test system with 25% and 50% wind penetration.Index Terms-DFAG wind turbine, frequency response, linear analysis, pitch angle control, root-locus analysis, wind generation.

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“…The wind farm is usually installed in remote areas, therefore reactive power has to be transported over long distances resulting in power loss. The wind farm has to provide reactive power control in response to voltage variation [1][2][3]. The reactive power control requirement is related to, characteristic of grid because the influence of injection of reactive power in various voltage levels depends on network short circuit capacity and impedance.…”

Section: Introductionmentioning

confidence: 99%

Modeling and simulation of SVC for reactive power control in high penetration wind power system

Pathak

Sharma²,

Gupta

2015

2015 Annual IEEE India Conference (INDICON)

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The amount of electricity being generated by wind turbines is increasing continuously and wind power penetration is continuously becoming more day by day. Due to large variations in wind generation, reactive power flows on transmission lines and voltage are major variables.This paper presents the modelling and simulation of Static Var Compensator (SVC) and reactive power control. In the first step, modeling of SVC carried out. In the second step, modelling of SVC is configured in power system to analyze its behavior for reactive power control along with impact on voltage level in 659 bus systems of Rajasthan Grid, comprising of different voltage level with high wind power penetration in the power system.All analysis is anchored with load flow analysis for SVC realization, by using Mi.-Power system analysis software. Results of tests conducted on the model system in various possible field conditions. the system studies of Rajasthan power system for development of power transmission system in Rajasthan and planning of the power evacuation system for new power plants.His field of interest are renewable energy, distributed generation, icelanding and reactive power compensation.Dr.Manoj Gupta received the B.E. degree in electrical engineering, the M.Tech. degree in power system and the Ph.D.

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Coordinated voltage control for multiple wind plants in Eastern Wyoming: Analysis and field experience

Cited by 22 publications

References 0 publications

Voltage responsive distribution networks: Comparing autonomous and centralized solutions

Voltage responsive distribution networks: Comparing autonomous and centralized solutions

A Fundamental Study of Applying Wind Turbines for Power System Frequency Control

Modeling and simulation of SVC for reactive power control in high penetration wind power system

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