Literature DB >> 26188633

Time series regression model for infectious disease and weather.

Chisato Imai1, Ben Armstrong2, Zaid Chalabi3, Punam Mangtani4, Masahiro Hashizume5.   

Abstract

Time series regression has been developed and long used to evaluate the short-term associations of air pollution and weather with mortality or morbidity of non-infectious diseases. The application of the regression approaches from this tradition to infectious diseases, however, is less well explored and raises some new issues. We discuss and present potential solutions for five issues often arising in such analyses: changes in immune population, strong autocorrelations, a wide range of plausible lag structures and association patterns, seasonality adjustments, and large overdispersion. The potential approaches are illustrated with datasets of cholera cases and rainfall from Bangladesh and influenza and temperature in Tokyo. Though this article focuses on the application of the traditional time series regression to infectious diseases and weather factors, we also briefly introduce alternative approaches, including mathematical modeling, wavelet analysis, and autoregressive integrated moving average (ARIMA) models. Modifications proposed to standard time series regression practice include using sums of past cases as proxies for the immune population, and using the logarithm of lagged disease counts to control autocorrelation due to true contagion, both of which are motivated from "susceptible-infectious-recovered" (SIR) models. The complexity of lag structures and association patterns can often be informed by biological mechanisms and explored by using distributed lag non-linear models. For overdispersed models, alternative distribution models such as quasi-Poisson and negative binomial should be considered. Time series regression can be used to investigate dependence of infectious diseases on weather, but may need modifying to allow for features specific to this context.
Copyright © 2015 The Authors. Published by Elsevier Inc. All rights reserved.

Entities:  

Keywords:  Climate; Infectious disease; Method; Time series; Weather

Mesh:

Year:  2015        PMID: 26188633     DOI: 10.1016/j.envres.2015.06.040

Source DB:  PubMed          Journal:  Environ Res        ISSN: 0013-9351            Impact factor:   6.498


  49 in total

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Authors:  Felipe J Colón-González; Leonardo Soares Bastos; Barbara Hofmann; Alison Hopkin; Quillon Harpham; Tom Crocker; Rosanna Amato; Iacopo Ferrario; Francesca Moschini; Samuel James; Sajni Malde; Eleanor Ainscoe; Vu Sinh Nam; Dang Quang Tan; Nguyen Duc Khoa; Mark Harrison; Gina Tsarouchi; Darren Lumbroso; Oliver J Brady; Rachel Lowe
Journal:  PLoS Med       Date:  2021-03-04       Impact factor: 11.069

2.  A cross-sectional analysis of meteorological factors and SARS-CoV-2 transmission in 409 cities across 26 countries.

Authors:  Francesco Sera; Ben Armstrong; Sam Abbott; Sophie Meakin; Kathleen O'Reilly; Rosa von Borries; Rochelle Schneider; Dominic Royé; Masahiro Hashizume; Mathilde Pascal; Aurelio Tobias; Ana Maria Vicedo-Cabrera; Antonio Gasparrini; Rachel Lowe
Journal:  Nat Commun       Date:  2021-10-13       Impact factor: 14.919

3.  EpiLPS: A fast and flexible Bayesian tool for estimation of the time-varying reproduction number.

Authors:  Oswaldo Gressani; Jacco Wallinga; Christian L Althaus; Niel Hens; Christel Faes
Journal:  PLoS Comput Biol       Date:  2022-10-10       Impact factor: 4.779

4.  Impact of stringent non-pharmaceutical interventions applied during the second and third COVID-19 epidemic waves in Portugal, 9 November 2020 to 10 February 2021: an ecological study.

Authors:  Ana Rita Torres; Ana Paula Rodrigues; Mafalda Sousa-Uva; Irina Kislaya; Susana Silva; Liliana Antunes; Carlos Dias; Baltazar Nunes
Journal:  Euro Surveill       Date:  2022-06

5.  Prediction of Zika-confirmed cases in Brazil and Colombia using Google Trends.

Authors:  S Morsy; T N Dang; M G Kamel; A H Zayan; O M Makram; M Elhady; K Hirayama; N T Huy
Journal:  Epidemiol Infect       Date:  2018-07-30       Impact factor: 4.434

6.  Seasonality and within-subject clustering of rotavirus infections in an eight-site birth cohort study.

Authors:  J M Colston; A M S Ahmed; S B Soofi; E Svensen; R Haque; J Shrestha; R Nshama; Z Bhutta; I F N Lima; A Samie; L Bodhidatta; A A M Lima; P Bessong; M Paredes Olortegui; A Turab; V R Mohan; L H Moulton; E N Naumova; G Kang; M N Kosek
Journal:  Epidemiol Infect       Date:  2018-03-14       Impact factor: 4.434

7.  Statistical study on the impact of different meteorological changes on the spread of COVID-19 pandemic in Egypt and its latitude.

Authors:  Ahmed Hamd; Diaa Elhak Abdulraheem; Aftab Aslam Parwaz Khan; Mohamed Shaban; Khalid A Alamry; Abdullah M Asiri
Journal:  Model Earth Syst Environ       Date:  2021-06-27

8.  Lagged Association between Climate Variables and Hospital Admissions for Pneumonia in South Africa.

Authors:  Hugo Pedder; Thandi Kapwata; Guy Howard; Rajen N Naidoo; Zamantimande Kunene; Richard W Morris; Angela Mathee; Caradee Y Wright
Journal:  Int J Environ Res Public Health       Date:  2021-06-08       Impact factor: 3.390

9.  The risks of warm nights and wet days in the context of climate change: assessing road safety outcomes in Boston, USA and Santo Domingo, Dominican Republic.

Authors:  José Ignacio Nazif-Munoz; Pablo Martínez; Augusta Williams; John Spengler
Journal:  Inj Epidemiol       Date:  2021-07-19

Review 10.  Statistical Modeling for the Prediction of Infectious Disease Dissemination With Special Reference to COVID-19 Spread.

Authors:  Subhash Kumar Yadav; Yusuf Akhter
Journal:  Front Public Health       Date:  2021-06-16
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