Results 121 to 130 of about 1,204 (174)

Passive mechanisms in flying insects and applications in bio-inspired flapping-wing micro air vehicles. [PDF]

Proc Biol Sci
Hao J, Zhang Y, Cheng C, Wu J.
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Multisensory integration in insect flight control. [PDF]

Biol Lett
Sane SP, Wehling R, Daniel T.
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The lepidopteran analyst: how caterpillars, moths and butterflies encode taste identity and valence. [PDF]

J Comp Physiol A Neuroethol Sens Neural Behav Physiol
Peftuloglu D, van Loon JJA, Haverkamp A.
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Pollination ecotypes and the origin of plant species. [PDF]

Proc Biol Sci
Johnson SD.
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Neural bottlenecks: axon count, distribution, and conduction in the Manduca sexta neck connective. [PDF]

J Comp Physiol A Neuroethol Sens Neural Behav Physiol
Wood L, Hayes K, Sharma V, Sun E, Chen M, Sponberg S.   +5 more
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Unsteady Aerodynamics in Bio-Inspired Flapping Wings for Low-Density Environments. [PDF]

Biomimetics (Basel)
Prisăcariu EG, Dumitrescu O, Sima M, Aparece-Scutariu V, Strătilă S, Roșu RA, Cuciumita C, Vlăducă I, Bica S.   +8 more
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Optomotor frequency response in hawkmoths

, 2016
Bomphrey, R, Taylor, G
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The hawkmoth effect

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The hawkmoth wingbeat is not at resonance

Biology Letters, 2022
Flying insects have elastic materials within their exoskeletons that could reduce the energetic cost of flight if their wingbeat frequency is matched to a mechanical resonance frequency. Flapping at resonance may be essential across flying insects because of the power demands of small-scale flapping flight.
Jeff Gau, Ethan S. Wold, James Lynch, Nick Gravish, Simon Sponberg   +4 more
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