Tag: #flapping-propulsion

Back to all news

31 July 2026

Lab Wins Two Awards at 2026 Bionic Design Competition

#awards #capstone #flapping-propulsion #moth #mudskipper #ray #robot

The lab received two awards in the College & Youth Innovation category (大專暨青創組) at the 2026 Bionic Design Competition (仿生設計競賽). The mudskipper-inspired design received the Marine Sustainability Innovation Award (海洋永續創新獎) from the Ocean Conservation Administration, Ocean Affairs Council, while the silkmoth-inspired robot, drawing on the silkmoth’s odour-sensing abilities, received the Circular Economy Smart Reduction Award (循環經濟智慧減量獎) from the Environmental Protection Department, New Taipei City Government.

Lab Wins Two Awards at 2026 Bionic Design Competition

5 June 2026

Lab Teams Excel at NUST Scientific Paper Competition

#awards #capstone #drone #flapping-propulsion #ray #robot

Two undergraduate teams from the laboratory shared First Place in the Engineering Technology category at the National University System of Taiwan (NUST, 臺灣國立大學系統) Scientific Paper Competition (科技論文競賽), with projects inspired by stingrays and maple seeds. A postgraduate team also received an Honorable Mention Award (佳作) for its dragonfly-inspired drone research.

Lab Teams Excel at NUST Scientific Paper Competition

4 March 2025

Published in Physics of Fluids: Biomimetic Propulsion Study

#aip #flapping-propulsion #physics-of-fluids #ray #research

Dr Lan, Dr Lai and their team published a study in Physics of Fluids showing that stingray-inspired asymmetric flapping can improve underwater propulsion efficiency. Using optimisation techniques and flow simulations, the research identified motion patterns that enhance vortex dynamics and support the design of biomimetic aquatic robots.

For more information please refer to https://doi.org/10.1063/5.0253805.

1 October 2024

Breakthrough in Manta-like Swimming Efficiency

#aip #flapping-propulsion #physics-of-fluids #ray #research

Dr Lai’s team and Dr Lan published a study in Physics of Fluids examining how manta-inspired asymmetric swimming motions can improve underwater vehicle efficiency. The research identified motion parameters that enhance thrust and propulsion performance, supporting advances in biomimetic underwater technology.

For more information please refer to https://doi.org/10.1063/5.0229833.