Standardizing visual control devices for tsetse flies: West African species Glossina tachinoides, G. palpalis gambiensis and G. morsitans submorsitans. 2012

Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
Centre International de Recherche-Développement sur l'Elevage en zone Subhumide (CIRDES), Bobo-Dioulasso, Burkina Faso.

Here we describe field trials designed to standardize tools for the control of Glossina tachinoides, G. palpalis gambiensis and G.morsitans submorsitans in West Africa based on existing trap/target/bait technology. Blue and black biconical and monoconical traps and 1 m(2) targets were made in either phthalogen blue cotton, phthalogen blue cotton/polyester or turquoise blue polyester/viscose (all with a peak reflectance between 450-480 nm) and a black polyester. Because targets were covered in adhesive film, they proved to be significantly better trapping devices than either of the two trap types for all three species (up to 14 times more for G. tachinoides, 10 times more for G. palpalis gambiensis, and 6.5 times for G. morsitans submorsitans). The relative performance of the devices in the three blue cloths tested was the same when unbaited or baited with a mixture of phenols, 1-octen-3-ol and acetone. Since insecticide-impregnated devices act via contact with flies, we enumerated which device (traps or targets) served as the best object for flies to land on by also covering the cloth parts of traps with adhesive film. Despite the fact that the biconical trap proved to be the best landing device for the three species, the difference over the target (20-30%) was not significant. This experiment also allowed an estimation of trap efficiency, i.e. the proportion of flies landing on a trap that are caught in its cage. A low overall efficiency of the biconical or monoconical traps of between 11-24% was recorded for all three species. These results show that targets can be used as practical devices for population suppression of the three species studied. Biconical traps can be used for population monitoring, but a correction factor of 5-10 fold needs to be applied to captures to compensate for the poor trapping efficiency of this device for the three species.

UI MeSH Term Description Entries
D007300 Insect Control The reduction or regulation of the population of noxious, destructive, or dangerous insects through chemical, biological, or other means. Control, Insect
D007306 Insecticides Pesticides designed to control insects that are harmful to man. The insects may be directly harmful, as those acting as disease vectors, or indirectly harmful, as destroyers of crops, food products, or textile fabrics. Insecticide
D008297 Male Males
D003116 Color The visually perceived property of objects created by absorption or reflection of specific wavelengths of light. Colors
D003368 Gossypium A plant genus of the family MALVACEAE. It is the source of COTTON FIBER; COTTONSEED OIL, which is used for cooking, and GOSSYPOL. The economically important cotton crop is a major user of agricultural PESTICIDES. Cotton Plant,Cotton Plants,Gossypiums,Plant, Cotton,Plants, Cotton
D004772 Entomology A discipline or occupation concerned with the study of INSECTS, including the biology and the control of insects.
D005260 Female Females
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D000354 Africa, Western The geographical area of Africa comprising BENIN; BURKINA FASO; CABO VERDE, COTE D'IVOIRE (formerly Ivory Coast); GAMBIA; GHANA; GUINEA; GUINEA-BISSAU; LIBERIA; MALI; MAURITANIA; NIGER; NIGERIA; SENEGAL; SIERRA LEONE; and TOGO. Africa, West,West Africa,Western Africa
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia

Related Publications

Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
November 2014, PLoS neglected tropical diseases,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
January 2014, PLoS neglected tropical diseases,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
March 2015, PLoS neglected tropical diseases,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
January 1996, International journal for parasitology,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
January 2013, PLoS neglected tropical diseases,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
January 1985, Revue d'elevage et de medecine veterinaire des pays tropicaux,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
March 1988, Journal of chemical ecology,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
October 2020, Trends in parasitology,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
March 2010, PLoS neglected tropical diseases,
Jean-Baptiste Rayaisse, and Thomas Kröber, and Andrew McMullin, and Philippe Solano, and Steve Mihok, and Patrick M Guerin
June 1998, Parasite (Paris, France),
Copied contents to your clipboard!