Journal of Bionic Engineering ›› 2024, Vol. 21 ›› Issue (4): 1621-1643.doi: 10.1007/s42235-024-00521-7

• •    下一篇

Research Progress on Bio-inspired Flapping-Wing Rotor Micro Aerial Vehicle Development

Yingjun Pan1; Shijun Guo1; Xun Huang1   

  1. 1 Centre for Aeronautics, School of Aerospace, Transport and Manufacturing, Cranfield University, Bedford MK43 0AL, UK
  • 出版日期:2024-07-15 发布日期:2024-09-01
  • 通讯作者: Yingjun Pan E-mail:y.pan@cranfield.ac.uk
  • 作者简介:Yingjun Pan1; Shijun Guo1; Xun Huang1

Research Progress on Bio-inspired Flapping-Wing Rotor Micro Aerial Vehicle Development

Yingjun Pan1; Shijun Guo1; Xun Huang1   

  1. 1 Centre for Aeronautics, School of Aerospace, Transport and Manufacturing, Cranfield University, Bedford MK43 0AL, UK
  • Online:2024-07-15 Published:2024-09-01
  • Contact: Yingjun Pan E-mail:y.pan@cranfield.ac.uk
  • About author:Yingjun Pan1; Shijun Guo1; Xun Huang1

摘要: Flapping-wing rotor (FWR) is an innovative bio-inspired micro aerial vehicle capable of vertical take-off and landing. This
unique design combines active flapping motion and passive wing rotation around a vertical central shaft to enhance aerodynamic
performance. The research on FWR, though relatively new, has contributed to 6% of core journal publications in the
micro aerial vehicle field over the past two decades. This paper presents the first comprehensive review of FWR, analysing
the current state of the art, key advances, challenges, and future research directions. The review highlights FWR’s distinctive
kinematics and aerodynamic superiority compared to traditional flapping wings, fixed wings, and rotary wings, discussing
recent breakthroughs in efficient, passive wing pitching and asymmetric stroke amplitude for lift enhancement. Recent
experiments and remote-controlled take-off and hovering tests of single and dual-motor FWR models have showcased their
effectiveness. The review compares FWR flight performance with well-developed insect-like flapping-wing micro aerial
vehicles as the technology readiness level progresses from laboratory to outdoor flight testing, advancing from the initial
flight of a 2.6 g prototype to the current free flight of a 60-gram model. The review also presents ongoing research in bionic
flexible wing structures, flight stability and control, and transitioning between hovering and cruise flight modes for an FWR,
setting the stage for potential applications.

关键词: Flapping-wing rotor · Micro aerial vehicle · Bio-inspiration · Flight

Abstract: Flapping-wing rotor (FWR) is an innovative bio-inspired micro aerial vehicle capable of vertical take-off and landing. This
unique design combines active flapping motion and passive wing rotation around a vertical central shaft to enhance aerodynamic
performance. The research on FWR, though relatively new, has contributed to 6% of core journal publications in the
micro aerial vehicle field over the past two decades. This paper presents the first comprehensive review of FWR, analysing
the current state of the art, key advances, challenges, and future research directions. The review highlights FWR’s distinctive
kinematics and aerodynamic superiority compared to traditional flapping wings, fixed wings, and rotary wings, discussing
recent breakthroughs in efficient, passive wing pitching and asymmetric stroke amplitude for lift enhancement. Recent
experiments and remote-controlled take-off and hovering tests of single and dual-motor FWR models have showcased their
effectiveness. The review compares FWR flight performance with well-developed insect-like flapping-wing micro aerial
vehicles as the technology readiness level progresses from laboratory to outdoor flight testing, advancing from the initial
flight of a 2.6 g prototype to the current free flight of a 60-gram model. The review also presents ongoing research in bionic
flexible wing structures, flight stability and control, and transitioning between hovering and cruise flight modes for an FWR,
setting the stage for potential applications.

Key words: Flapping-wing rotor · Micro aerial vehicle · Bio-inspiration · Flight