Modeling and Simulation Analysis of a Hybrid PV-Wind Renewable Energy Sources for a Micro-Grid Application

AlKassem, Abdulrahman; Ahmadi, Mikaeel; Draou, A.

doi:10.1109/icsmartgrid52357.2021.9551215

Cited by 7 publications

(3 citation statements)

References 20 publications

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“…Several fundamental control requirements must be addressed in grid-connected inverter-based microgrids utilizing a DC-DC interface power converter to ensure efficient and high-quality operation. These requirements include maximum power point tracking (MPPT) for optimal power extraction, high-quality power injection with low total harmonic distortion (THD) in voltage and current waveforms [17]. To fulfill these demands, the primary controller is typically divided into two cascading control loops: an outer loop for power or voltage control and an inner loop for current control.…”

Section: Dc-ac Inverter and Modified Grid-supportingmentioning

confidence: 99%

Modelling of a Photovoltaic-Based Grid Supporting Microgrid and Fault Ride-Through Control Application

2023

ijSmartGrid

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This research paper presents a detailed modeling approach for a grid-supporting microgrid system based on photovoltaic (PV) technology. The study encompasses the development of a comprehensive model that accurately represents the dynamic behavior of the microgrid components, including PV arrays, DC-DC converters, DC-AC inverters, and the grid interface. Emphasis is placed on incorporating fault ride-through control techniques to enhance the microgrid's resilience and maintain an uninterrupted power supply during grid disturbances. The modeling process involves capturing the electrical characteristics and interactions among various system components using suitable mathematical equations and control algorithms. Special attention is given to accurately representing the PV arrays' output characteristics and the converter and inverter dynamics. The resulting model provides a reliable platform for studying the system's behavior under different operating conditions, including normal grid operation and fault scenarios. Furthermore, the study addresses the implementation of fault ride-through control mechanisms to ensure the microgrid's stability and ability to ride through grid faults. Various control strategies, such as voltage and current control, droop control, and active/reactive power control, are investigated and integrated into the system model. These control techniques enable the microgrid to autonomously regulate its power output and maintain stable voltage and frequency levels during grid disturbances, thereby enhancing the microgrid's reliability and gridsupporting capabilities. The proposed modeling and fault ride-through control strategies are evaluated through extensive simulations and analysis. The microgrid's performance under different fault scenarios, including voltage sags, voltage swells, and grid disconnections, is thoroughly assessed to validate the effectiveness of the implemented control strategies. Thus, this study provides valuable insights into a PV-based grid-supporting microgrid's modeling and control aspects, demonstrating the feasibility and effectiveness of fault ride-through control techniques. The findings contribute to the advancement of microgrid technologies and support the integration of renewable energy sources into the existing power grid infrastructure.

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Section: Dc-ac Inverter and Modified Grid-supportingmentioning

confidence: 99%

Modelling of a Photovoltaic-Based Grid Supporting Microgrid and Fault Ride-Through Control Application

2023

ijSmartGrid

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“…In many areas of science and engineering, fuzzy logic is a simple and useful tool rather than classical Boolean logic. The researchers favor a fuzzy logic-based control approach [4,5].…”

Section: Proceedings Of First International Conference On Smart Syste...mentioning

confidence: 99%

Fuzzy Logic Controlled Hierarchical Power Management Scheme for A Solid-State Transformer (SST) Interfaced D.C Micro Grid

Satheesh,

Reddy

2023

First International Conference on Smart Systems and Green Energy Technologies

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The system integration of an advanced, integrated solid-state transformer (SST) micro-grid system is examined and, for the first time, used in this project. A power management strategy is required for this system in order to allow operating in islanding mode operation, SST-enabled operations, as well as the smooth switching between two modes. The recommended power management technique includes three levels of control: First control is for the local controller, second control for recovering the bus voltage of the dc micro grid, and third control for controlling battery state of charge.

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“…In a system with grid input, the grid is one of the several sources, with or without battery backup. In the second setup, a grid-tie inverter connects the HPS output to the grid, exporting excess electricity [22]. Combining AC and RES minimizes peak power and energy demand on the utility grid, reducing electricity generation from fossil fuels and thereby reducing greenhouse gas emissions [23].…”

Section: Introductionmentioning

confidence: 99%

Intelligent Energy Management for Distributed Power Plants and Battery Storage

Prakash

Varma

Ravikumar

et al. 2023

International Transactions on Electrical Energy Systems

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A smart energy management controller is required for effective source coordination and load demand management. This work proposes a novel instantaneous current reference technique for use in power management of hybrid power systems (HPS), both autonomous and interconnected with the grid. A grid integrated hybrid power system (GI-HPS) includes both the AC grid and additional sources used in industrial and commercial environments. Solar photovoltaic (SPV) panels, wind turbine generators, proton exchange membrane fuel cells, and batteries are all part of the test system. The suggested energy management system (SEMS) manages power from the hybrid power source and the energy storage components to meet the load needs. The recommended SEMS can transit between 12 different modes of operation to fulfil the load demand requirements. The SEMS employs a scaling factor N to accelerate the rate at which the measured current approaches the reference current. The proposed scaling factor significantly improves the SEMS’s dynamic performance since it can quickly respond to the changes in the source and load characteristics. The dependability of an HPS powered by a variety of renewable energy sources can also be improved.

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Modeling and Simulation Analysis of a Hybrid PV-Wind Renewable Energy Sources for a Micro-Grid Application

Cited by 7 publications

References 20 publications

Modelling of a Photovoltaic-Based Grid Supporting Microgrid and Fault Ride-Through Control Application

Modelling of a Photovoltaic-Based Grid Supporting Microgrid and Fault Ride-Through Control Application

Fuzzy Logic Controlled Hierarchical Power Management Scheme for A Solid-State Transformer (SST) Interfaced D.C Micro Grid

Intelligent Energy Management for Distributed Power Plants and Battery Storage

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