Material stiffness variation in mosquito antennae

The antennae of mosquitoes are model systems for acoustic sensation, in that they obey general principles for sound detection, using both active feedback mechanisms and passive structural adaptations. However, the biomechanical aspect of the antennal structure is much less understood than the mechan...

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Veröffentlicht in:Journal of the Royal Society interface 2019-05, Vol.16 (154), p.20190049
Hauptverfasser: Saltin, B D, Matsumura, Y, Reid, A, Windmill, J F, Gorb, S N, Jackson, J C
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container_issue 154
container_start_page 20190049
container_title Journal of the Royal Society interface
container_volume 16
creator Saltin, B D
Matsumura, Y
Reid, A
Windmill, J F
Gorb, S N
Jackson, J C
description The antennae of mosquitoes are model systems for acoustic sensation, in that they obey general principles for sound detection, using both active feedback mechanisms and passive structural adaptations. However, the biomechanical aspect of the antennal structure is much less understood than the mechano-electrical transduction. Using confocal laser scanning microscopy, we measured the fluorescent properties of the antennae of two species of mosquito- Toxorhynchites brevipalpis and Anopheles arabiensis-and, noting that fluorescence is correlated with material stiffness, we found that the structure of the antenna is not a simple beam of homogeneous material, but is in fact a rather more complex structure with spatially distributed discrete changes in material properties. These present as bands or rings of different material in each subunit of the antenna, which repeat along its length. While these structures may simply be required for structural robustness of the antennae, we found that in FEM simulation, these banded structures can strongly affect the resonant frequencies of cantilever-beam systems, and therefore taken together our results suggest that modulating the material properties along the length of the antenna could constitute an additional mechanism for resonant tuning in these species.
doi_str_mv 10.1098/rsif.2019.0049
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subjects Animals
Anopheles - anatomy & histology
Anopheles - chemistry
Arthropod Antennae - anatomy & histology
Arthropod Antennae - chemistry
Life Sciences–Engineering interface
Stress, Mechanical
title Material stiffness variation in mosquito antennae
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