Papers
7
Total Citations
200
H-Index
5
About
Chang-Kwon Kang is a leading researcher in bioinspired flapping-wing flight, whose work bridges unsteady aerodynamics, structural flexibility, and robotic design. His major contributions center on understanding how wing flexibility enhances lift and stability in insect-sized flyers. In a seminal 2013 study (104 citations), Kang established a comprehensive scaling law for lift generation in hovering flexible wings, revealing that chordwise flexibility can passively stabilize flight—a finding that overturned assumptions based on rigid-wing models. His experimental work on Monarch butterflies (44 citations) provided rare, high-fidelity kinematic data during climbing flight, while his 2018 study (24 citations) demonstrated that flexible wings inherently improve hovering stability without active control. Kang has also pushed the boundaries of extreme-environment flight, designing the first tailless flapping-wing robot to achieve lift-off at high altitudes (12 citations) and developing scaling laws for bioinspired Mars hover vehicles (9 citations). His butterfly-inspired micro air vehicle (4 citations) showcases practical implementation, achieving stable flight with a single motor. With over 200 total citations, Kang’s work is essential reading for students and engineers seeking to understand how nature’s flexible fliers can inspire next-generation aerial robots.
Research Focus
Key Achievements
Top Papers
- 1
- 2Experimental Characterization of a Butterfly in Climbing Flight44 citations · 2017
- 3Chordwise wing flexibility may passively stabilize hovering insects24 citations · 2018
- 4
- 5Scaling Bioinspired Mars Flight Vehicles for Hover9 citations · 2019
- 6
- 7