Coleman Michael, Hemingway Janet, Gleave Katherine Ann, Wiebe Antoinette, Gething Peter W, Moyes Catherine L
Department of Vector Biology, Liverpool School of Tropical Medicine, Pembroke Place, Liverpool, L3 5QA, UK.
Malaria Atlas Project, Oxford Big Data Institute, Li Ka Shing Centre for Health Information and Discovery, University of Oxford, Oxford, OX3 7BN, UK.
Malar J. 2017 Feb 21;16(1):86. doi: 10.1186/s12936-017-1733-z.
Significant reductions in malaria transmission have been achieved over the last 15 years with elimination occurring in a small number of countries, however, increasing drug and insecticide resistance threatens these gains. Insecticide resistance has decreased the observed mortality to the most commonly used insecticide class, the pyrethroids, and the number of alternative classes approved for use in public health is limited. Disease prevention and elimination relies on operational control of Anopheles malaria vectors, which requires the deployment of effective insecticides. Resistance is a rapidly evolving phenomena and the resources and human capacity to continuously monitor vast numbers of mosquito populations in numerous locations simultaneously are not available.
Resistance data are obtained from published articles, by contacting authors and custodians of unpublished data sets. Where possible data is disaggregated to single sites and collection periods to give a fine spatial resolution.
Currently the data set includes data from 1955 to October 2016 from 71 malaria endemic countries and 74 anopheline species. This includes data for all four classes of insecticides and associated resistance mechanisms.
Resistance is a rapidly evolving phenomena and the resources and human capacity to continuously monitor vast numbers of mosquito populations in numerous locations simultaneously are not available. The Malaria Atlas Project-Insecticide Resistance (MAP-IR) venture has been established to develop tools that will use available data to provide best estimates of the spatial distribution of insecticide resistance and help guide control programmes on this serious issue.
在过去15年里,疟疾传播已大幅减少,少数国家已实现疟疾消除,但不断增加的药物和杀虫剂抗性威胁着这些成果。杀虫剂抗性已降低了最常用杀虫剂类别拟除虫菊酯的观察到的死亡率,且批准用于公共卫生的替代类别数量有限。疾病预防和消除依赖于对按蚊疟媒的业务控制,这需要部署有效的杀虫剂。抗性是一种快速演变的现象,同时在众多地点持续监测大量蚊虫种群的资源和人力尚不存在。
抗性数据通过联系已发表文章的作者以及未发表数据集的保管人来获取。在可能的情况下,将数据分解到单个地点和收集时期,以提供精细的空间分辨率。
目前该数据集包括来自71个疟疾流行国家和74种按蚊的1955年至2016年10月的数据。这包括所有四类杀虫剂及相关抗性机制的数据。
抗性是一种快速演变的现象,同时在众多地点持续监测大量蚊虫种群的资源和人力尚不存在。疟疾地图集项目-杀虫剂抗性(MAP-IR)计划已设立,以开发利用现有数据提供杀虫剂抗性空间分布最佳估计值的工具,并在此严重问题上帮助指导控制计划。