Simulation and Modeling of a Wind Turbine using PMSG with Maximum Power Tracking Control

Joshi, Hitesh; Swami, Anurag Kumar; Matiyali, Kanchan

doi:10.1109/witconece48374.2019.9092893

Cited by 2 publications

(2 citation statements)

References 19 publications

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“…To adjust the PMSG torque, the rotation speed is controlled to follow the maximum power while the wind speed changes [13,15] and this is done by the MSC control. This strategy is based on a double closed loop control (Current and speed control) [28].…”

Section: Machine Side Converter (Msc) Control Strategymentioning

confidence: 99%

“…It is composed of a PMSG, its control strategy is used for the GSC to realize the decoupled current control concept to control active and reactive power and to maintain a constant DC bus voltage [13], [14]. The Field Oriented Control (FOC) is used by the MSC to control the speed of the PMSG [15]. We subdivided our work into three parts, where we will present the analysis, modeling and control of the grid connected PV system, the grid connected wind system and the grid connected PV/Wind system.…”

Section: Introductionmentioning

confidence: 99%

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Grid-connected control of PV-Wind hybrid energy system

Azoug

Belmili

Fekkak

2021

IJPEDS

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Article history: Received Oct 14, 2020 Revised Mar 22, 2021 Accepted Apr 23, 2021 This paper presented a strategy for modeling, simulation and control of a hybrid grid connected power system which is in fact a rather complex system. In this work, we study how to use two renewable energies in an efficient manner without any disturbing of the main network. Our hybrid energy system (HES) is composed by two renewable energy sources, the photovoltaic source and wind source. It is better for these two systems to work at their maximum power in order to return the investment cost of the system. The proposed solution is to connect those generators to the electrical grid via the AC bus with trackers. Where the photovoltaic generator (PVG) is followed by a DC/DC boost converter, controlled by a perturb and observe (P&O) tracker, then followed by a three-phase voltage inverter (3-ph-VSI) which is controlled by the watt-var decoupled method. The wind system is based on permanent magnet synchronous machine (PMSM) which is used as a variable speed generator and directly connected to the turbine (without gearbox) followed by back-to-back converters. The grid side converter (GSC) allows us to control the DC bus voltage and unity power factor, while the machine side converter (MSC) ensures us to control the PMSM speed. Knowing that pitch angle control is not considered in our study. The MPPT control strategy, which is based on the optimum peak speed ratio (OTSR), is used to ensure the most energy efficiency despite variations in wind speed. The coupling of the two systems is done via the Point of Common Collecting (PCC). Finally, simulation results show the feasibility of our solution and the good performances of the proposed control strategy, applied for mediumsized HES in power generation. They also demonstrate that such system topology is very advantageous.

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Section: Machine Side Converter (Msc) Control Strategymentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

Grid-connected control of PV-Wind hybrid energy system

Azoug

Belmili

Fekkak

2021

IJPEDS

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A Proposed Strategy to Solve the ‎Intermittency Problem in Renewable Energy Systems ‎Using A Hybrid Energy ‎Storage System

Boghdady

Alajmi

Darwish

et al. 2021

Wseas Transactions on Power Systems

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Renewable energy resources are a favorable solution for the coming energy. So, a great interest has been paid in the last decades for developing and utilizing renewable energy resources as wind energy. As it has a large energy contents and, particularize with the availability, but the major problems of it are represented in unmatched with load demand because the intermittency and fluctuation of nature conditions. Many studies focused on the new strategy of using Battery Storage System (BSS), and solving some problems that affect the DC bus voltage and the BSS by using Electrochemical Double Layer Capacitor (EDLC). Their capability is to store energy to realize the objective of time shifting of surplus energy with a high efficiency. The article main objective is to model, simulate, design, and study the performance of a Stand-Alone Wind Energy System with Hybrid Energy Storage (SAWS-HES). Thus, a complete model of the proposed system is implemented including a detailed modeling procedure of the HESS components. In addition to the main contribution, a study of the performance of EDLC only as a storage device that has fast response device integrated to the suggested system then it hybridized with the BSS. The HESS has the capability to compensate the DC bus voltage in the transient conditions and gives good stability for the system. The SAWS-HES utilizes one main renewable energy resource as wind turbine and overall model is employed under MATLAB/Simulink including a developed simple logic controller. The SAWS-HES simulation results presented a promising performance and have a satisfied performance in meeting the end load demands at different operation conditions. This ensures the SAWS-HES reliability and the effectiveness with HES and the controller in stand-alone operation formulating an excellent solution for the renewable energy systems

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Simulation and Modeling of a Wind Turbine using PMSG with Maximum Power Tracking Control

Cited by 2 publications

References 19 publications

Grid-connected control of PV-Wind hybrid energy system

Grid-connected control of PV-Wind hybrid energy system

A Proposed Strategy to Solve the ‎Intermittency Problem in Renewable Energy Systems ‎Using A Hybrid Energy ‎Storage System

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