Trapping tsetse flies on water

Riverine tsetse flies such as Glossina palpalis gambiensis and G. tachinoides are the vectors of human and animal trypanosomoses in West Africa. Despite intimate links between tsetse and water, to our knowledge there has never been any attempt to design trapping devices that would catch tsetse on wa...

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Main Authors: Laveissière C., Camara M., Rayaisse J.B., Salou E., Kagbadouno M., Solano P.
Format: Article
Language:English
Published: EDP Sciences 2011-05-01
Series:Parasite
Subjects:
Online Access:http://dx.doi.org/10.1051/parasite/2011182141
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spelling doaj-61480325fe6d45568c7e89546c8af6402021-03-02T10:57:05ZengEDP SciencesParasite1252-607X1776-10422011-05-0118214114410.1051/parasite/2011182141parasite2011182p141Trapping tsetse flies on waterLaveissière C.Camara M.Rayaisse J.B.Salou E.Kagbadouno M.Solano P.Riverine tsetse flies such as Glossina palpalis gambiensis and G. tachinoides are the vectors of human and animal trypanosomoses in West Africa. Despite intimate links between tsetse and water, to our knowledge there has never been any attempt to design trapping devices that would catch tsetse on water. In mangrove (Guinea) one challenging issue is the tide, because height above the ground for a trap is a key factor affecting tsetse catches. The trap was mounted on the remains of an old wooden dugout, and attached with rope to nearby branches, thereby allowing it to rise and fall with the tide. Catches showed a very high density of 93.9 flies/”water-trap”/day, which was significantly higher (p < 0.05) than all the catches from other habitats where the classical trap had been used. In savannah, on the Comoe river of South Burkina Faso, the biconical trap was mounted on a small wooden raft anchored to a stone, and catches were compared with the classical biconical trap put on the shores. G. p. gambiensis and G. tachinoides densities were not significantly different from those from the classical biconical one. The adaptations described here have allowed to efficiently catch tsetse on the water, which to our knowledge is reported here for the first time. This represents a great progress and opens new opportunities to undertake studies on the vectors of trypanosomoses in mangrove areas of Guinea, which are currently the areas showing the highest prevalences of sleeping sickness in West Africa. It also has huge potential for tsetse control using insecticide impregnated traps in savannah areas where traps become less efficient in rainy season. The Guinean National control programme has already expressed its willingness to use such modified traps in its control campaigns in Guinea, as has the national PATTEC programme in Burkina Faso during rainy season.http://dx.doi.org/10.1051/parasite/2011182141tsetsefloating trapmangrovesavannahtrypanosomoseWest Africa
collection DOAJ
language English
format Article
sources DOAJ
author Laveissière C.
Camara M.
Rayaisse J.B.
Salou E.
Kagbadouno M.
Solano P.
spellingShingle Laveissière C.
Camara M.
Rayaisse J.B.
Salou E.
Kagbadouno M.
Solano P.
Trapping tsetse flies on water
Parasite
tsetse
floating trap
mangrove
savannah
trypanosomose
West Africa
author_facet Laveissière C.
Camara M.
Rayaisse J.B.
Salou E.
Kagbadouno M.
Solano P.
author_sort Laveissière C.
title Trapping tsetse flies on water
title_short Trapping tsetse flies on water
title_full Trapping tsetse flies on water
title_fullStr Trapping tsetse flies on water
title_full_unstemmed Trapping tsetse flies on water
title_sort trapping tsetse flies on water
publisher EDP Sciences
series Parasite
issn 1252-607X
1776-1042
publishDate 2011-05-01
description Riverine tsetse flies such as Glossina palpalis gambiensis and G. tachinoides are the vectors of human and animal trypanosomoses in West Africa. Despite intimate links between tsetse and water, to our knowledge there has never been any attempt to design trapping devices that would catch tsetse on water. In mangrove (Guinea) one challenging issue is the tide, because height above the ground for a trap is a key factor affecting tsetse catches. The trap was mounted on the remains of an old wooden dugout, and attached with rope to nearby branches, thereby allowing it to rise and fall with the tide. Catches showed a very high density of 93.9 flies/”water-trap”/day, which was significantly higher (p < 0.05) than all the catches from other habitats where the classical trap had been used. In savannah, on the Comoe river of South Burkina Faso, the biconical trap was mounted on a small wooden raft anchored to a stone, and catches were compared with the classical biconical trap put on the shores. G. p. gambiensis and G. tachinoides densities were not significantly different from those from the classical biconical one. The adaptations described here have allowed to efficiently catch tsetse on the water, which to our knowledge is reported here for the first time. This represents a great progress and opens new opportunities to undertake studies on the vectors of trypanosomoses in mangrove areas of Guinea, which are currently the areas showing the highest prevalences of sleeping sickness in West Africa. It also has huge potential for tsetse control using insecticide impregnated traps in savannah areas where traps become less efficient in rainy season. The Guinean National control programme has already expressed its willingness to use such modified traps in its control campaigns in Guinea, as has the national PATTEC programme in Burkina Faso during rainy season.
topic tsetse
floating trap
mangrove
savannah
trypanosomose
West Africa
url http://dx.doi.org/10.1051/parasite/2011182141
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