Literature DB >> 33386073

Assessment of novel Lehmann's funnel entry trap prototypes performance to control malaria mosquito populations.

Roger Sanou1,2, Hamidou Maïga3, Etienne M Bilgo3, Simon P Sawadogo3, Bazoumana B D Sow3,4, Adama Ouema3,4, Koama Bayili3, Adrien Marie Gaston Belem4, Léa Paré Toé3, Roch K Dabiré3, Abdoulaye Diabaté5.   

Abstract

BACKGROUND: There is a global consensus that new intervention tools are needed for the final steps toward malaria elimination/eradication. In a recent study in Burkina Faso, the Lehmann Funnel Entry Trap (LFET) has shown promising results in the reduction of mosquito densities, even in areas where insecticide resistance is as high as 80%. The LFET requires no chemicals and is self-operated. However, one of the issues with the original LFET is the size of the funnel, which often occupies too much space within users' homes. Here, the performance of three new, smaller-sized LFET prototypes that combine a screening and killing effect on mosquitoes was assessed.
METHODS: The study was carried out over three months during the rainy season in low and high malaria vector density sites, Soumousso and Vallée du Kou, respectively. The original LFET (or 'Prototype 1'/'P1') was modified to produce three new prototypes, which were referred to as prototype 2 ('the Medium' or 'P2'), prototype 3 (P3) and prototype 4 (P4). Each of the new prototypes was tested on eight days per month over the three-month period to assess their effectiveness in trapping and killing mosquitoes entering houses through the windows compared to the original LFET.
RESULTS: Overall, 78,435 mosquitoes (mainly Anopheles gambiae sensu lato) were collected in the two study sites, both in the traps and in the houses. A total of 56,430 (72%) mosquitoes were collected from the traps. In Vallée du Kou, the original LFET caught a greater number of mosquitoes than the medium (prototype 2), whereas no difference was observed between the other new prototypes (3 and 4) and the medium. In Soumousso, both the original and medium LFETs collected significantly greater numbers of mosquitoes compared to prototypes 3 and 4.
CONCLUSION: This study has shown that the new LFET prototypes are effective in trapping mosquitoes in high mosquito density settings. A large-scale study with one of the prototypes will be needed to assess community acceptance of the traps and their ability to control malaria vectors.

Entities:  

Keywords:  Adult mosquito trap; Anopheles gambiae; Burkina faso; Malaria; Prototypes

Mesh:

Year:  2021        PMID: 33386073      PMCID: PMC7777431          DOI: 10.1186/s12936-020-03532-x

Source DB:  PubMed          Journal:  Malar J        ISSN: 1475-2875            Impact factor:   2.979


  25 in total

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Authors:  J E Harbison; E M Mathenge; G O Misiani; W R Mukabana; J F Day
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Review 3.  Insecticide treated nets: impact on vector populations and relevance of initial intensity of transmission and pyrethroid resistance.

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Review 4.  Mosquito behavior and vector control.

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Authors:  Matthew J Kirby; David Ameh; Christian Bottomley; Clare Green; Musa Jawara; Paul J Milligan; Paul C Snell; David J Conway; Steve W Lindsay
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7.  Increased proportions of outdoor feeding among residual malaria vector populations following increased use of insecticide-treated nets in rural Tanzania.

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9.  Anopheline species composition and the 1014F-genotype in different ecological settings of Burkina Faso in relation to malaria transmission.

Authors:  Alphonse Traoré; Athanase Badolo; Moussa W Guelbeogo; Antoine Sanou; Mafalda Viana; Luca Nelli; Soumanaba Zongo; Hyacinthe K Toé; Alfred S Traoré; Hilary Ranson; N'Falé Sagnon
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Review 10.  Tools and Strategies for Malaria Control and Elimination: What Do We Need to Achieve a Grand Convergence in Malaria?

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