Performance of two 5 MW permanent magnet wind turbine generators using surface mounted and interior mounted magnets

Roshanfekr, Poopak; Thiringer, Torbjörn; Alatalo, Mikael C D; Lundmark, Sonja

doi:10.1109/icelmach.2012.6350004

Cited by 13 publications

(10 citation statements)

References 4 publications

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“…It has been widely studied in literature the advantages and disadvantages of using each configuration [26] and therefore they will not be discussed here. The drive-train used in the wind turbine co-simulation is a surface mounted PMSG and the model is discussed extensively in the literature [27,28]. The physical parameters are obtained from [27].…”

Section: Generatorsmentioning

confidence: 99%

“…The purpose of these studies is not to design a gearbox, and therefore, the geometric parameters are not conforming to a manufacturer's design. The physical parameters available from the previous design of the 5 MW PMSG presented in [27] and the gearbox presented in [9], it is possible to obtain a complete drivetrain by scaling the parameters to meet the gear ratio and inertia requirements [30]. The mass and inertia properties were scaled using the power scaling laws:…”

Section: Mw Model Set-upmentioning

confidence: 99%

See 1 more Smart Citation

Assessment of wind turbine drive-train fatigue loads under torsional excitation

Gallego‐Calderon

Natarajan

2015

Engineering Structures

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Section: Generatorsmentioning

confidence: 99%

Section: Mw Model Set-upmentioning

confidence: 99%

Assessment of wind turbine drive-train fatigue loads under torsional excitation

Gallego‐Calderon

Natarajan

2015

Engineering Structures

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“…The output active power of the WF can be calculated by: (18) Constraints: (19), (20), the WF reactive power constraint (21), the bus voltage limit (22), the current constraint of the GSC (23), which is used to limit the reactive power, the pitch angle limit (24), the active power limit (25), and the WT operation region constraints (26), (27). In the power flow problem, the point of common coupling is treated as slack bus and all the other buses are treated as PQ buses.…”

Section: Problem Formulation and Optimizationmentioning

confidence: 99%

Coordinated power dispatch of a PMSG based wind farm for output power maximizing considering the wake effect and losses

Zhang

Hou

et al. 2016

2016 IEEE Power and Energy Society General Meeting (PESGM)

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The energy loss in a wind farm (WF) caused by wake interaction between wind turbines (WTs) is quite high, which can be reduced by proper active power dispatch. The electrical loss inside a WF by improper active power and reactive power dispatch is also considerable. In this paper, a coordinated active power and reactive power dispatch strategy is proposed for a Permanent magnet synchronous generator (PMSG) based WF, in order to maximize the total output power by reducing the wake effect and losses inside the devices of the WF, including the copper loss and iron loss of PMSGs, losses inside converters and transformers of WTs and the losses along the transmission cables. The active power reference and reactive power reference of each WT are chosen as the optimization variables and a partial swarm optimizing (PSO) algorithm is used for solving the problem. The proposed strategy is compared with traditional strategies in a designed WF. Simulation results show the effectiveness of the proposed strategy.

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“…However, to yield better generating performance of an IPMSG-based wind generator, one must properly treat many key issues, such as proper field-excitation or commutation instant setting and shifting, close winding current command tracking control, good armature current waveform quality for lowering the machine de-rating. During the past decades, many researches for enhancing the performances of wind IPMSGs have been conducted [7][8][9][10][11].…”

Section: Introductionmentioning

confidence: 99%

Development of a Wind Interior Permanent-Magnet Synchronous Generator-Based Microgrid and Its Operation Control

Liaw

2015

IEEE Trans. Power Electron.

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This paper presents the development of a wind interior permanent-magnet synchronous generator (IPMSG) based DC micro-grid and its operation control. First, the derated characteristics of PMSG systems with various AC/DC converters and operation controls are comparatively analyzed. Then the IPMSG followed by three-phase Vienna switchmode rectifier (SMR) is developed to establish the common DC bus of DC micro-grid. Good developed power and voltage regulation characteristics are achieved via the proposed commutation tuning, robust current and voltage controls. Second, a single-phase three-wire (1P3W) inverter is constructed to serve as the test load. Good AC 220V/110V output voltage waveforms under unknown and nonlinear loads are preserved by the developed robust waveform tracking control scheme. Third, a battery energy storage system (BESS) is established, and the fast energy storage support response is obtained via the proposed droop control approach with adaptive predictive current control method. In addition, a chopped dump load is equipped to enhance the energy balance control flexibility.

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Performance of two 5 MW permanent magnet wind turbine generators using surface mounted and interior mounted magnets

Cited by 13 publications

References 4 publications

Assessment of wind turbine drive-train fatigue loads under torsional excitation

Assessment of wind turbine drive-train fatigue loads under torsional excitation

Coordinated power dispatch of a PMSG based wind farm for output power maximizing considering the wake effect and losses

Development of a Wind Interior Permanent-Magnet Synchronous Generator-Based Microgrid and Its Operation Control

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