Performance Improvement and Stability Enhancement in a Grid Connected PV-DFIG Hybrid System

This manuscript introduces a novel method of incorporating sustainable-power solutions, explicitly wind(WT), and photovoltaic(PV), within a combined energy-setup, that incorporates a 250(kW) DFIGWTS and 100(KW) SPVS. The proposed system is interconnected at the DC-coupling point. In this configuration, the solar-PV System(SPVS) capacity is designed to match the GSC rating of the DFIG. The power from solar-PV is present, DFIG-Wind-Turbine System(DFIGWTS) functions at sub-synchronous-speeds(SSS) or operates under low-intensity-load. On the other hand, when wind-energy is accessible, DFIGWTS functions at hyper-synchronous-speed(HSS) to affirm efficient electric energy production, and smooth Grid collaboration. This system assimilation design can be evaluated, and verified through simulations in MATLAB. Both DFIGWTS and SPVS power resources are utilized efficiently, as demonstrated by these simulations. Grid-Integration challenges are also addressed, improving overall-system stability, and efficiency. A promising solution for sustainable energy generation is offered by this integrated approach. It helps lessen the dependence on classical energy systems. Further it aids in transitioning to a more sustainable energy framework.

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Publication Details

Journal
WSEAS TRANSACTIONS ON CIRCUITS AND SYSTEMS
Published
2025-08-04
DOI
https://doi.org/10.37394/23201.2025.24.18
Primary Topic
Islanding Detection in Power Systems
Type
article
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article

Performance Improvement and Stability Enhancement in a Grid Connected PV-DFIG Hybrid System

Sambasiva Rao, Ankineedu Prasad Padamata
WSEAS TRANSACTIONS ON CIRCUITS AND SYSTEMS
Islanding Detection in Power Systems
article

Performance Improvement and Stability Enhancement in a Grid Connected PV-DFIG Hybrid System

Sambasiva Rao, Ankineedu Prasad Padamata
article en

Abstract

This manuscript introduces a novel method of incorporating sustainable-power solutions, explicitly wind(WT), and photovoltaic(PV), within a combined energy-setup, that incorporates a 250(kW) DFIGWTS and 100(KW) SPVS. The proposed system is interconnected at the DC-coupling point. In this configuration, the solar-PV System(SPVS) capacity is designed to match the GSC rating of the DFIG. The power from solar-PV is present, DFIG-Wind-Turbine System(DFIGWTS) functions at sub-synchronous-speeds(SSS) or operates under low-intensity-load. On the other hand, when wind-energy is accessible, DFIGWTS functions at hyper-synchronous-speed(HSS) to affirm efficient electric energy production, and smooth Grid collaboration. This system assimilation design can be evaluated, and verified through simulations in MATLAB. Both DFIGWTS and SPVS power resources are utilized efficiently, as demonstrated by these simulations. Grid-Integration challenges are also addressed, improving overall-system stability, and efficiency. A promising solution for sustainable energy generation is offered by this integrated approach. It helps lessen the dependence on classical energy systems. Further it aids in transitioning to a more sustainable energy framework.

WSEAS TRANSACTIONS ON CIRCUITS AND SYSTEMSVol. 24
Acharya Nagarjuna University (IN)
Openalex Percentile: Top 82%
Islanding Detection in Power Systems
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Performance Improvement and Stability Enhancement in a Grid Connected PV-DFIG Hybrid System — Sambasiva Rao, Ankineedu Prasad Padamata · WSEAS TRANSACTIONS ON CIRCUITS AND SYSTEMS (2025) | TGRS Research Map | TGRS