Recent progress on flutter‐based wind energy harvesting

Wind energy harvesting technology can convert wind energy into electric energy to supply power for microelectronic devices. It has great potential in many specific applications and environments, such as remote areas, sea surfaces, mountains, and so on. Over the past few years, flutter‐based wind ene...

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Published inInternational journal of mechanical system dynamics Vol. 2; no. 1; pp. 82 - 98
Main Authors Li, Zhiyuan, Zhou, Shengxi, Yang, Zhichun
Format Journal Article
LanguageEnglish
Published Nanjing John Wiley & Sons, Inc 01.03.2022
Wiley
Subjects
Aeroelastic stability
Aeronautics
Alternative energy
dynamics
Eigenvalues
Energy harvesting
Flat plates
Flexible bodies
Flutter
Hybrid structures
Limit cycle oscillations
performance enhancement
Structural stability
Vibration
Vortices
wind energy harvesting
Wind power
working principle
Online AccessGet full text
ISSN2767-1402
2767-1399
2767-1402
DOI10.1002/msd2.12035

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Abstract Wind energy harvesting technology can convert wind energy into electric energy to supply power for microelectronic devices. It has great potential in many specific applications and environments, such as remote areas, sea surfaces, mountains, and so on. Over the past few years, flutter‐based wind energy harvesting, which generates electric energy based on the limit cycle oscillation created by structural aeroelastic instability, has received increasing attention, and as a consequence, different energy harvesting structures, theories, and methods have been proposed. In this paper, three types of flutter‐based energy harvesters (FEHs) including airfoil‐based, flat plate‐based, and flexible body‐based FEHs are reviewed, and related concepts and theoretical models are introduced. The recent progress in FEH performance enhancement methods is classified into structural improvement and optimization, the introduction of nonlinearity, and hybrid structures and mechanisms. Finally, the main FEH challenges are summarized, and future research directions are discussed.
AbstractList Abstract Wind energy harvesting technology can convert wind energy into electric energy to supply power for microelectronic devices. It has great potential in many specific applications and environments, such as remote areas, sea surfaces, mountains, and so on. Over the past few years, flutter‐based wind energy harvesting, which generates electric energy based on the limit cycle oscillation created by structural aeroelastic instability, has received increasing attention, and as a consequence, different energy harvesting structures, theories, and methods have been proposed. In this paper, three types of flutter‐based energy harvesters (FEHs) including airfoil‐based, flat plate‐based, and flexible body‐based FEHs are reviewed, and related concepts and theoretical models are introduced. The recent progress in FEH performance enhancement methods is classified into structural improvement and optimization, the introduction of nonlinearity, and hybrid structures and mechanisms. Finally, the main FEH challenges are summarized, and future research directions are discussed.
Wind energy harvesting technology can convert wind energy into electric energy to supply power for microelectronic devices. It has great potential in many specific applications and environments, such as remote areas, sea surfaces, mountains, and so on. Over the past few years, flutter‐based wind energy harvesting, which generates electric energy based on the limit cycle oscillation created by structural aeroelastic instability, has received increasing attention, and as a consequence, different energy harvesting structures, theories, and methods have been proposed. In this paper, three types of flutter‐based energy harvesters (FEHs) including airfoil‐based, flat plate‐based, and flexible body‐based FEHs are reviewed, and related concepts and theoretical models are introduced. The recent progress in FEH performance enhancement methods is classified into structural improvement and optimization, the introduction of nonlinearity, and hybrid structures and mechanisms. Finally, the main FEH challenges are summarized, and future research directions are discussed.
Author Zhou, Shengxi
Yang, Zhichun
Li, Zhiyuan
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  organization: Northwestern Polytechnical University
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Snippet Wind energy harvesting technology can convert wind energy into electric energy to supply power for microelectronic devices. It has great potential in many...
Abstract Wind energy harvesting technology can convert wind energy into electric energy to supply power for microelectronic devices. It has great potential in...
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SubjectTerms Aeroelastic stability
Aeronautics
Alternative energy
dynamics
Eigenvalues
Energy harvesting
Flat plates
Flexible bodies
Flutter
Hybrid structures
Limit cycle oscillations
performance enhancement
Structural stability
Vibration
Vortices
wind energy harvesting
Wind power
working principle
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Title Recent progress on flutter‐based wind energy harvesting
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fmsd2.12035
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