Multi-Scale Demographic Analysis of Covid-19 Booster Vaccination Rates Using Graph Neural Networks

This study presents a multi-scale demographic analysis of COVID-19 booster vaccination rates using Graph Neural Networks (GNNs). Data from Nueces County, Texas, was analyzed at two levels of geographic granularity: block groups and census tracts. The block group model demonstrated superior accuracy in predicting vaccination rates compared to the census tract model, emphasizing the importance of fine-grained data for public health planning. To evaluate the combination of models at different scales, aggregation methods such as weighted sum, majority voting, and stacking were employed. While these methods provided insights, they did not outperform the block group model. The study highlights the potential of GNNs for improving public health interventions through targeted vaccination strategies. Limitations include the dataset's focus on data up to February 2022 and the absence of more granular demographic factors. Future work will incorporate temporal factors and explore smaller geographic scales, such as block-level data, for enhanced precision.

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Publication Details

Published
2024-12-15
DOI
https://doi.org/10.1109/bigdata62323.2024.10825296
Citations
1
Primary Topic
COVID-19 epidemiological studies
Type
article
Field-Weighted Citation Impact
0.40
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article

Multi-Scale Demographic Analysis of Covid-19 Booster Vaccination Rates Using Graph Neural Networks

Taoran Ji, Hossein Naderi, Ying Huang, Ziba Abbasian
1 citations
COVID-19 epidemiological studies
0.40
article

Multi-Scale Demographic Analysis of Covid-19 Booster Vaccination Rates Using Graph Neural Networks

Taoran Ji, Hossein Naderi, Ying Huang, Ziba Abbasian
article en
1 citations

Abstract

This study presents a multi-scale demographic analysis of COVID-19 booster vaccination rates using Graph Neural Networks (GNNs). Data from Nueces County, Texas, was analyzed at two levels of geographic granularity: block groups and census tracts. The block group model demonstrated superior accuracy in predicting vaccination rates compared to the census tract model, emphasizing the importance of fine-grained data for public health planning. To evaluate the combination of models at different scales, aggregation methods such as weighted sum, majority voting, and stacking were employed. While these methods provided insights, they did not outperform the block group model. The study highlights the potential of GNNs for improving public health interventions through targeted vaccination strategies. Limitations include the dataset's focus on data up to February 2022 and the absence of more granular demographic factors. Future work will incorporate temporal factors and explore smaller geographic scales, such as block-level data, for enhanced precision.

Texas A&M University – Corpus Christi (US)
Openalex Percentile: Top 37%
COVID-19 epidemiological studies
0.40
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