Power Generation Using Permanent MagnetSynchronous Generator (PMSG) BasedVariable Speed Wind Energy ConversionSystem (WECS): An Overview

Abstract

In the recent time, Permanent-Magnet Synchronous-Generator (PMSG) based variable-speed Wind-Energy Conversion-Systems (WECS) has become very attractive to many researchers. The research aim is to analyse different synchronous machine and compare them based on their maximum power generation. This paper reviews various aspects of PMSG such as topologies with controlled and uncontrolled rectifier, grid-connected and standalone mode of operation with various control methods of PMSG based WECS and recent optimization approaches. The performance analysis of PMSG can be enhanced by adopting a number of control mechanisms with the benefit of advanced optimization techniques. A comparative analysis is carried out based on the techniques used and their corresponding advantages and drawbacks are discussed.

Modified Maximum Power Point Tracking on Models of a 400 Wp Wind Power Plant

“…Comparison of results based on Syahputra's research [7], with a model that has been designed with a 50-ohm load, is as follows: Based on Figure 7 above, from the three circuits, the 3000-Watt Wind Turbine design model has characteristics that are almost close to the Syahputra [10], circuit with 3000-Watt power. After that the 400-Watt Wind Turbine circuit can be assembled with the characteristics of results power which different.…”

“…Dwiana Hendrawati 1 , Mulyono 2 , Wahyono 3 , Suwarti 4 , Nur Fatowil Aulia 5 , Ariyanto 6 and Brainvendra Widi Dionova 7…”

A new integral-synergetic controller for direct reactive and active powers control of a dual-rotor wind system

“…7 The DARPC strategy was designed to control the Ps and Qs of the permanent magnet synchronous generator. 8 Recently, several DARPC strategies law based on a DFIG are presented in literature such as neural DARPC strategy, 9 fuzzy DARPC control, 10 neurofuzzy DARPC strategy, 11 sliding mode-DARPC control, 12 DARPC strategy with classical space vector modulation (CSVM), 13 DARPC control with supertwisting sliding mode (STSM) controllers, 14 DARPC strategy with neural STSM controllers, 15 DARPC strategy based on genetic algorithm (GA), 16 DARPC strategy based on backstepping controller, 17 DARPC strategy based on terminal synergetic controller, 18 DARPC strategy based on third-order sliding mode controller, 19 DARPC strategy based on sliding mode controller (SMC), 20 and the DARPC control with neuro-fuzzy STSM controllers. 21 These proposed strategies to improve the performance of DARPC are multiple and differ from each other in terms of complexity, simplicity, and ease of implementation.…”

Integration of Switched Reluctance Generator in a Wind Energy Conversion System: An Overview of the State of the Art and Challenges

“…The WECS applications are increasingly popular with Dou Induction Generator (DFIG), which demonstrated an interesting performance [6 main disadvantages of these type of generator are the complexity of power con high cost [8,9]. The Permanent Magnet Synchronous Generator (PMSG) have int performance in wind applications [10,11], but their cost is still very high and dif manufacture [12,13]. Therefore, the voltage regulation performance of PMSG is under harsh operating conditions.…”