A review: Learning from the flight of beetles

Some Coleoptera (popularly referred to as beetles) can fly at a low Reynolds number with their deployable hind wings, which directly enables a low body weight–a good bioinspiration strategy for miniaturization of micro-air vehicles (MAVs). The hind wing is a significant part of the body and has a fo...

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Veröffentlicht in:Computers in biology and medicine 2021-06, Vol.133, p.104397-104397, Article 104397
Hauptverfasser: Song, Zelai, Tong, Jin, Pfleging, Wilhelm, Sun, Jiyu
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Pfleging, Wilhelm
Sun, Jiyu
description Some Coleoptera (popularly referred to as beetles) can fly at a low Reynolds number with their deployable hind wings, which directly enables a low body weight–a good bioinspiration strategy for miniaturization of micro-air vehicles (MAVs). The hind wing is a significant part of the body and has a folding/unfolding mechanism whose unique function benefits from different structures and materials. This review summarizes the actions, factors, and mechanisms of beetle flight and bioinspired MAVs with deployable wings. The elytron controlled by muscles is the protected part for the folded hind wing and influences flight performance. The resilin, the storage material for elasticity, is located in the folding parts. The hind wings’ folding/unfolding mechanism and flight performance can be influenced by vein structures of hollow, solid and wrinkled veins, the hemolymph that flows in hollow veins and its hydraulic mechanism, and various mechanical properties of veins. The action of beetle flight includes flapping flight, hovering, gliding, and landing. The hind wing is passively deformed through force and hemolymph, and the attack angle of the hind wing and the nanomechanics of the veins, muscles and mass body determine the flight performance. Based these factors, bioinspired MAVs with a new deployable wing structure and new materials will be designed to be much more effective and miniaturized. The new fuels and energy supply are significant aspects of MAVs. •Flight beetles with deployable hindwings is a good bioinspiration strategy for miniaturization of micro air vehicles (MAVs).•Extracting the beetles' flight features parameters and optimization will be important for MAVs design.•There are still many challenges existing in bioinspired deployable MAVs need further understanding about beetles' flight.
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The hind wing is passively deformed through force and hemolymph, and the attack angle of the hind wing and the nanomechanics of the veins, muscles and mass body determine the flight performance. Based these factors, bioinspired MAVs with a new deployable wing structure and new materials will be designed to be much more effective and miniaturized. The new fuels and energy supply are significant aspects of MAVs. •Flight beetles with deployable hindwings is a good bioinspiration strategy for miniaturization of micro air vehicles (MAVs).•Extracting the beetles' flight features parameters and optimization will be important for MAVs design.•There are still many challenges existing in bioinspired deployable MAVs need further understanding about beetles' flight.</abstract><cop>United States</cop><pub>Elsevier Ltd</pub><pmid>33895456</pmid><doi>10.1016/j.compbiomed.2021.104397</doi><tpages>1</tpages><orcidid>https://orcid.org/0000-0001-7102-3996</orcidid></addata></record>
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subjects Abdomen
Aerodynamics
Angle of attack
Beetle
Beetles
Bioinspired MAVs
Biomimetics
Body weight
Coleoptera
Composite materials
Deployable
Design
Flapping wings
Flight
Flight characteristics
Fluid flow
Folding
Gliding
Hemolymph
Hind wing
Hovering
Hovering flight
Landing behavior
Mechanical properties
Micro air vehicles (MAV)
Miniaturization
Muscles
Solar thin-film batteries
Wings
title A review: Learning from the flight of beetles
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