Research article

Evaluating COVID-19 in Portugal: Bootstrap confidence interval

  • Received: 18 November 2023 Revised: 17 December 2023 Accepted: 22 December 2023 Published: 29 December 2023
  • MSC : 62F40, 62F25, 62P10

  • In this paper, we consider a compartmental model to fit the real data of confirmed active cases with COVID-19 in Portugal, from March 2, 2020 until September 10, 2021 in the Primary Care Cluster in Aveiro region, ACES BV, reported to the Public Health Unit. The model includes a deterministic component based on ordinary differential equations and a stochastic component based on bootstrap methods in regression. The main goal of this work is to take into account the variability underlying the data set and analyse the estimation accuracy of the model using a residual bootstrapped approach in order to compute confidence intervals for the prediction of COVID-19 confirmed active cases. All numerical simulations are performed in R environment ( version. 4.0.5). The proposed algorithm can be used, after a suitable adaptation, in other communicable diseases and outbreaks.

    Citation: Sofia Tedim, Vera Afreixo, Miguel Felgueiras, Rui Pedro Leitão, Sofia J. Pinheiro, Cristiana J. Silva. Evaluating COVID-19 in Portugal: Bootstrap confidence interval[J]. AIMS Mathematics, 2024, 9(2): 2756-2765. doi: 10.3934/math.2024136

    Related Papers:

  • In this paper, we consider a compartmental model to fit the real data of confirmed active cases with COVID-19 in Portugal, from March 2, 2020 until September 10, 2021 in the Primary Care Cluster in Aveiro region, ACES BV, reported to the Public Health Unit. The model includes a deterministic component based on ordinary differential equations and a stochastic component based on bootstrap methods in regression. The main goal of this work is to take into account the variability underlying the data set and analyse the estimation accuracy of the model using a residual bootstrapped approach in order to compute confidence intervals for the prediction of COVID-19 confirmed active cases. All numerical simulations are performed in R environment ( version. 4.0.5). The proposed algorithm can be used, after a suitable adaptation, in other communicable diseases and outbreaks.



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