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实时空间决策支持以优化疟疾媒介控制:以赤道几内亚比奥科岛的室内滞留喷洒为例。

Real-time, spatial decision support to optimize malaria vector control: The case of indoor residual spraying on Bioko Island, Equatorial Guinea.

作者信息

García Guillermo A, Atkinson Brent, Donfack Olivier Tresor, Hilton Emily R, Smith Jordan M, Eyono Jeremías Nzamío Mba, Iyanga Marcos Mbulito, Vaz Liberato Motobe, Mba Nguema Avue Restituto, Pollock John, Ratsirarson Josea, Aldrich Edward M, Phiri Wonder P, Smith David L, Schwabe Christopher, Guerra Carlos A

机构信息

Medical Care Development International, Silver Spring, MD, United States of America.

Medical Care Development International, Malabo, Equatorial Guinea.

出版信息

PLOS Digit Health. 2022 May 12;1(5):e0000025. doi: 10.1371/journal.pdig.0000025. eCollection 2022 May.

Abstract

Public health interventions require evidence-based decision-making to maximize impact. Spatial decision support systems (SDSS) are designed to collect, store, process and analyze data to generate knowledge and inform decisions. This paper discusses how the use of a SDSS, the Campaign Information Management System (CIMS), to support malaria control operations on Bioko Island has impacted key process indicators of indoor residual spraying (IRS): coverage, operational efficiency and productivity. We used data from the last five annual IRS rounds (2017 to 2021) to estimate these indicators. IRS coverage was calculated as the percentage of houses sprayed per unit area, represented by 100x100 m map-sectors. Optimal coverage was defined as between 80% and 85%, and under and overspraying as coverage below 80% and above 85%, respectively. Operational efficiency was defined as the fraction of map-sectors that achieved optimal coverage. Daily productivity was expressed as the number of houses sprayed per sprayer per day (h/s/d). These indicators were compared across the five rounds. Overall IRS coverage (i.e. percent of total houses sprayed against the overall denominator by round) was highest in 2017 (80.2%), yet this round showed the largest proportion of oversprayed map-sectors (36.0%). Conversely, despite producing a lower overall coverage (77.5%), the 2021 round showed the highest operational efficiency (37.7%) and the lowest proportion of oversprayed map-sectors (18.7%). In 2021, higher operational efficiency was also accompanied by marginally higher productivity. Productivity ranged from 3.3 h/s/d in 2020 to 3.9 h/s/d in 2021 (median 3.6 h/s/d). Our findings showed that the novel approach to data collection and processing proposed by the CIMS has significantly improved the operational efficiency of IRS on Bioko. High spatial granularity during planning and deployment together with closer follow-up of field teams using real-time data supported more homogeneous delivery of optimal coverage while sustaining high productivity.

摘要

公共卫生干预措施需要基于证据的决策,以实现最大影响。空间决策支持系统(SDSS)旨在收集、存储、处理和分析数据,以生成知识并为决策提供信息。本文讨论了使用一个空间决策支持系统——“活动信息管理系统(CIMS)”来支持比奥科岛的疟疾控制行动,如何影响了室内滞留喷洒(IRS)的关键过程指标:覆盖率、运营效率和生产率。我们使用了过去五个年度室内滞留喷洒轮次(2017年至2021年)的数据来估算这些指标。室内滞留喷洒覆盖率计算为每单位面积喷洒房屋的百分比,以100×100米的地图扇区表示。最佳覆盖率定义为80%至85%之间,喷洒不足和喷洒过量分别定义为覆盖率低于80%和高于85%。运营效率定义为达到最佳覆盖率的地图扇区比例。日生产率表示为每个喷雾器每天喷洒的房屋数量(h/s/d)。对这五个轮次的这些指标进行了比较。总体室内滞留喷洒覆盖率(即每轮针对总体分母喷洒的房屋总数的百分比)在2017年最高(80.2%),但该轮显示喷洒过量的地图扇区比例最大(36.0%)。相反,尽管2021年的总体覆盖率较低(77.5%),但该轮显示出最高的运营效率(37.7%)和最低的喷洒过量地图扇区比例(18.7%)。2021年,更高的运营效率还伴随着略高的生产率。生产率范围从2020年的3.3 h/s/d到2021年的3.9 h/s/d(中位数为3.6 h/s/d)。我们的研究结果表明,CIMS提出的新颖数据收集和处理方法显著提高了比奥科岛室内滞留喷洒的运营效率。规划和部署期间的高空间粒度,以及使用实时数据对实地团队进行更密切的跟踪,支持了更均匀地提供最佳覆盖率,同时保持高生产率。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/14c3/9931250/9c304af38d6d/pdig.0000025.g001.jpg

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