在巴西联邦区使用地理编码技术进行流行病学监测:以登革热为例研究。

IF 0.9 4区 医学 Q4 HEALTH CARE SCIENCES & SERVICES
Geospatial Health Pub Date : 2025-07-07 Epub Date: 2025-09-02 DOI:10.4081/gh.2025.1403
Lucas Sanglard, Klauss K S Garcia, Walter Massa Ramalho
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引用次数: 0

摘要

本研究旨在以登革热为例,比较不同的地址地理编码服务及其在流行病学监测中的适用性。我们应用了一项横断面描述性研究,该研究基于2014年巴西首都法定疾病信息系统(SINAN)中的病例通报,其中包括国家统计地址数据库(CNEFE)中确定的完整邮政编码(CEP)信息,这被认为是准确性分析的“黄金标准”。对于没有CEP的记录,通过将原始数据库与四种地理编码工具(谷歌Maps、CNEFE、OpenStreetMap (OSM)和ArcGIS)链接进行地理参考。用于地理参考的变量是“街道名称”、“居住城市/直辖市代码”和“州”,使用案例位置的准确率估计和平均空间误差(MSE)。两个最准确的模型被用于核密度(KD)分析,这对于确定优先干预区域是有价值的。登革热病例18,206例,其中109例(0.6%)具有正确的CEP信息,并使用CNEFE数据库进行地理编码。链接结果表明,谷歌Maps应用程序编程接口(API)的精度为17.6% (MSE: 178.89km), CNEFE为9.0% (MSE: 17.24km), OSM为7.1% (MSE: 564.19km), ArcGIS为3.7% (MSE: 2001.33km)。虽然总体精度值适中,但证明对KD分析有效的最佳两种模型揭示了谷歌Maps和CNEFE结果之间的相似模式,但选择更好的地理编码技术也需要财政资源。本研究建议使用谷歌Maps API进行地理参考,其次是CNEFE。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Use of geocoding techniques for epidemiological surveillance in the Federal District, Brazil: a case study using dengue.

This study aimed to compare different address geocoding services and their applicability to epidemiological surveillance using dengue as an example. We applied a cross-sectional, descriptive study based on case notifications in the Notifiable Diseases Information System (SINAN) for the Brazilian capital in 2014 that includes complete postal code (CEP) information identified in the National Address Database for Statistical Purposes (CNEFE), which is considered the 'gold standard' for accuracy analysis. For records without CEP, georeferencing was performed through linkage of the original database with four geocoding tools: Google Maps, CNEFE, OpenStreetMap (OSM) and ArcGIS. Variables used for georeferencing were 'street name', 'code for municipality/ city of residency' and 'State' using accuracy rate estimate and mean spatial error (MSE) of case locations. The two most accurate models were used for kernel density (KD) analysis which is valuable for identifying priority areas for intervention. There were 18,206 dengue cases, 109 (0.6%) of which had correct CEP information and geocoded using CNEFE bases. The linkage results showed that Google Maps application programming interface (API) had an accuracy of 17.6% (MSE: 178.89km), CNEFE 9.0% (MSE: 17.24km), OSM 7.1% (MSE: 564.19km), and ArcGIS 3.7% (MSE: 2001.33km). Although overall accuracy values were modest, the best two models proven to be effective for KD analysis revealed similar patterns between Google Maps and CNEFE results but choosing the preferable geocoding technique should also financial resources. This study recommends the use of Google Maps API for georeferencing, followed by CNEFE.

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来源期刊
Geospatial Health
Geospatial Health 医学-公共卫生、环境卫生与职业卫生
CiteScore
2.40
自引率
11.80%
发文量
48
审稿时长
12 months
期刊介绍: The focus of the journal is on all aspects of the application of geographical information systems, remote sensing, global positioning systems, spatial statistics and other geospatial tools in human and veterinary health. The journal publishes two issues per year.
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