Fotakis Emmanouil A, Orfanos Manolis, Kouleris Thodoris, Stamatelopoulos Panagiotis, Tsiropoulos Zisis, Kampouraki Anastasia, Kioulos Ilias, Mavridis Konstantinos, Chaskopoulou Alexandra, Koliopoulos George, Vontas John
Institute of Molecular Biology and Biotechnology, Foundation for Research and Technology-Hellas, Heraklion, Greece.
AGENSO, Agricultural and Environmental Solutions, Athens, Greece.
Curr Res Parasitol Vector Borne Dis. 2021 Oct 11;1:100053. doi: 10.1016/j.crpvbd.2021.100053. eCollection 2021.
Over the past decade, Greece and other Mediterranean countries have witnessed the emergence and resurgence of several vector-borne diseases (VBDs), posing important public health challenges and threatening the tourist industry. An essential prerequisite for the design and execution of efficient and sustainable context-specific VBD control programmes is the establishment of integrative entomological and epidemiological surveillance systems. However, the monitoring and management of surveillance datasets (often chronologically fragmented, scattered in regional health district offices and partially accessible upon requisition), as well as their transformation into actionable information, is a complex undertaking. In light of aiding and optimizing vector control efforts in the Mediterranean Basin, we developed VectorMap-GR, an online, open access, operational management tool for entomological and complementary epidemiological monitoring data. The tool's key components are a set of controlled vocabularies (ontologies) running throughout the system, the system's database and a map interface for data querying and display. The tool supports transformation of raw data into operationally relevant information (i.e. customized maps, charts, tables and reports) in a highly interactive fashion achieved through query filters and the ArcGIS technology embedded in the system. End-users may search for and obtain information on (i) the mosquito fauna composition, abundance and spatiotemporal dynamics; (ii) the mosquito insecticide resistance status and underlying resistance mechanisms; (iii) the occurrence of VBD pathogens and infections in vectors, animals and humans; and (iv) operationally relevant physical feature georeferenced datasets (e.g. mosquito breeding sites). VectorMap-GR was pilot implemented during 2018-2020 in a mosquito control programme in the Region of Crete (southern Greece). The programme's control efforts coupled with VectorMap-GR pilot implementation phase, very likely contributed to the reduction of vector population numbers and the prevention of human VBD occurrences, recorded in this period.
在过去十年中,希腊和其他地中海国家见证了几种媒介传播疾病(VBDs)的出现和再次流行,这对公共卫生构成了重大挑战,并威胁到旅游业。设计和实施高效且可持续的针对具体情况的VBD控制计划的一个基本前提是建立综合的昆虫学和流行病学监测系统。然而,监测和管理监测数据集(这些数据集通常按时间顺序分散,散布在地区卫生区办公室,部分数据需申请才能获取),以及将其转化为可操作的信息,是一项复杂的工作。为了协助并优化地中海盆地的病媒控制工作,我们开发了VectorMap-GR,这是一个在线的、开放获取的用于昆虫学和补充流行病学监测数据的运营管理工具。该工具的关键组件包括贯穿整个系统运行的一组受控词汇表(本体)、系统数据库以及用于数据查询和显示的地图界面。该工具支持以高度交互的方式将原始数据转化为与操作相关的信息(即定制地图、图表、表格和报告),这是通过查询过滤器和系统中嵌入的ArcGIS技术实现的。最终用户可以搜索并获取有关以下方面的信息:(i)蚊虫动物群落组成、丰度和时空动态;(ii)蚊虫杀虫剂抗性状况及潜在抗性机制;(iii)VBD病原体在媒介、动物和人类中的发生情况及感染情况;(iv)与操作相关的地理参考物理特征数据集(如蚊虫繁殖地)。VectorMap-GR于2018年至2020年在希腊南部克里特岛地区的蚊虫控制计划中进行了试点实施。该计划的控制措施加上VectorMap-GR的试点实施阶段,很可能促成了这一时期媒介种群数量的减少以及人类VBD发生情况的预防。