Experiment-Based Optimization of Flapping Wing Kinematics. Thomson, S., L., Mattson, C., A., Colton, M., B., Harston, S., P., Carlson, D., C., Cutler, M., & Introduction, I. In AIAA Aerospace meeting, pages 1-8, 2009.
Paper abstract bibtex Optimization of flapping wing trajectory was explored using an experimental apparatus. A scaled-up hawkmoth (Manduca sexta) wing was fabricated and mounted to a three-degree of freedom flapping mechanism. The vertical force generated during flapping was measured using a load cell and the wing path was optimized to maximize the average vertical force. The mechanism design, control, and instrumentation, and the optimization approach are explained. The optimization results, including wing trajectories, are presented and further research topics are discussed. Nomenclature A i,j = amplitudes for driving functions (°) F z = vertical force (arbitrary units) t s = sampling duration (s) α = wing feathering angle (°) α d = desired wing feathering angle (°) φ = wing flapping angle (°) φ d = desired wing flapping angle (°) θ = wing elevation angle (°) θ d = desired wing elevation angle (°) ω = driving function fundamental frequency (rad/s)
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title = {Experiment-Based Optimization of Flapping Wing Kinematics},
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abstract = {Optimization of flapping wing trajectory was explored using an experimental apparatus. A scaled-up hawkmoth (Manduca sexta) wing was fabricated and mounted to a three-degree of freedom flapping mechanism. The vertical force generated during flapping was measured using a load cell and the wing path was optimized to maximize the average vertical force. The mechanism design, control, and instrumentation, and the optimization approach are explained. The optimization results, including wing trajectories, are presented and further research topics are discussed. Nomenclature A i,j = amplitudes for driving functions (°) F z = vertical force (arbitrary units) t s = sampling duration (s) α = wing feathering angle (°) α d = desired wing feathering angle (°) φ = wing flapping angle (°) φ d = desired wing flapping angle (°) θ = wing elevation angle (°) θ d = desired wing elevation angle (°) ω = driving function fundamental frequency (rad/s)},
bibtype = {inProceedings},
author = {Thomson, Scott L and Mattson, Christopher A and Colton, Mark B and Harston, Stephen P and Carlson, Daniel C and Cutler, Mark and Introduction, I},
booktitle = {AIAA Aerospace meeting}
}
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