Literature DB >> 11914321

Risk factors for trachoma in Mali.

J-F Schémann1, D Sacko, D Malvy, G Momo, L Traore, O Bore, S Coulibaly, A Banou.   

Abstract

OBJECTIVES: Prior to commencing a campaign to eliminate blinding trachoma in Mali, a national disease prevalence survey was conducted from March 1996 to June 1997. The prevalence of trachoma was estimated and potential risk factors were studied.
METHODS: In each of Mali's seven regions (excluding the capital Bamako), a sample of 30 clusters was taken from the general population, in accordance with the principle of probability proportional to the size of the community. All children under 10 years of age were examined. The simplified clinical coding system proposed by the World Health Organization was used. The position of each village was established and subsequently related to the nearest meteorological station. Socioeconomic and environmental information was collected at both village and household level. The mother or caretaker of each child was questioned about availability and use of water for washing the child. At the time of examination, facial cleanliness and the presence of flies on the face were noted.
RESULTS: A total of 15,187 children under 10 years of age were examined. The prevalence of active trachoma (follicular [TF] or intense trachoma [TI]) was 34.9% (95% CI : 32.3-37.6) and the prevalence of TI was 4.2% (95% CI : 3.5-5.0). Aridity/environmental dryness appears to be a risk factor influencing the current geographical distribution of trachoma. Small villages had considerably higher trachoma prevalence than their larger neighbours. The proximity of a medical centre and the existence of social organizations such as a women's association were associated with lower levels of trachoma. Crowded living conditions increased the risk. Using a monetary marker of wealth, we observed a linear inverse relation between wealth and trachoma prevalence. The presence of a dirty face was strongly associated with trachoma (odds ratio [OR] = 3.67) as was the presence of flies on the child's face (OR = 3.62). Trachoma prevalence increased with distance to a water source. Disease prevalence decreased with a higher frequency of both face washing and bathing.
CONCLUSIONS: Of all the risk factors examined, facial cleanliness had the strongest association with the prevalence of trachoma. This was followed by the presence of flies on the child's face. Both face washing and bathing showed beneficial effects. Socioeconomic factors such as wealth were significantly explanatory. It is likely that hygiene education and fly control by environmental improvement could have a very significant impact on the prevalence of trachoma in Mali.

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Year:  2002        PMID: 11914321     DOI: 10.1093/ije/31.1.194

Source DB:  PubMed          Journal:  Int J Epidemiol        ISSN: 0300-5771            Impact factor:   7.196


  42 in total

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2.  Risk of trachoma in a SAFE intervention area.

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4.  Distance to water source and altitude in relation to active trachoma in Rombo district, Tanzania.

Authors:  R F Baggaley; A W Solomon; H Kuper; S Polack; P A Massae; J Kelly; S Safari; N D E Alexander; P Courtright; A Foster; D C Mabey
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5.  Comparison of Mass Azithromycin Coverage Targets of Children in Niger: A Cluster-Randomized Trachoma Trial.

Authors:  Catherine E Oldenburg; Abdou Amza; Boubacar Kadri; Beido Nassirou; Sun Y Cotter; Nicole E Stoller; Sheila K West; Robin L Bailey; Travis C Porco; Bruce D Gaynor; Jeremy D Keenan; Thomas M Lietman
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6.  Targeting trachoma control through risk mapping: the example of Southern Sudan.

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Review 7.  Strategies to control trachoma.

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8.  The relationship between prevalence of active trachoma, water availability and its use in a Tanzanian village.

Authors:  Sarah Polack; Hannah Kuper; Anthony W Solomon; Patrick A Massae; Carolina Abuelo; Ewen Cameron; Vivian Valdmanis; Michael Mahande; Allen Foster; David Mabey
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9.  Follicular trachoma and trichiasis prevalence in an urban community in The Gambia, West Africa: is there a need to include urban areas in national trachoma surveillance?

Authors:  E Quicke; A Sillah; E M Harding-Esch; A Last; H Joof; P Makalo; R L Bailey; S E Burr
Journal:  Trop Med Int Health       Date:  2013-09-06       Impact factor: 2.622

10.  Active trachoma among children in Mali: Clustering and environmental risk factors.

Authors:  Mathieu Hägi; Jean-François Schémann; Frédéric Mauny; Germain Momo; Doulaye Sacko; Lamine Traoré; Denis Malvy; Jean-François Viel
Journal:  PLoS Negl Trop Dis       Date:  2010-01-19
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