Influenza spread on context-specific networks lifted from interaction-based diary data

Studying the spread of infections is an important tool in limiting or preventing future outbreaks. A first step in understanding disease dynamics is constructing networks that reproduce features of real-world interactions. In this paper, we generate networks that maintain some features of the partia...

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Main Authors: Kristina Mallory, Joshua Rubin Abrams, Anne Schwartz, Maria-Veronica Ciocanel, Alexandria Volkening, Björn Sandstede
Format: Article
Language:English
Published: The Royal Society 2021-01-01
Series:Royal Society Open Science
Subjects:
Online Access:https://royalsocietypublishing.org/doi/pdf/10.1098/rsos.191876
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spelling doaj-3593ef6a11804048bce34d6c185e58f42021-03-03T12:03:59ZengThe Royal SocietyRoyal Society Open Science2054-57032021-01-018110.1098/rsos.191876191876Influenza spread on context-specific networks lifted from interaction-based diary dataKristina MalloryJoshua Rubin AbramsAnne SchwartzMaria-Veronica CiocanelAlexandria VolkeningBjörn SandstedeStudying the spread of infections is an important tool in limiting or preventing future outbreaks. A first step in understanding disease dynamics is constructing networks that reproduce features of real-world interactions. In this paper, we generate networks that maintain some features of the partial interaction networks that were recorded in an existing diary-based survey at the University of Warwick. To preserve realistic structure in our artificial networks, we use a context-specific approach. In particular, we propose different algorithms for producing larger home, work and social networks. Our networks are able to maintain much of the interaction structure in the original diary-based survey and provide a means of accounting for the interactions of survey participants with non-participants. Simulating a discrete susceptible–infected–recovered model on the full network produces epidemic behaviour which shares characteristics with previous influenza seasons. Our approach allows us to explore how disease transmission and dynamic responses to infection differ depending on interaction context. We find that, while social interactions may be the first to be reduced after influenza infection, limiting work and school encounters may be significantly more effective in controlling the overall severity of the epidemic.https://royalsocietypublishing.org/doi/pdf/10.1098/rsos.191876dynamic networkdisease spreadsusceptible–infected–recovered modelinfluenzasocial distance
collection DOAJ
language English
format Article
sources DOAJ
author Kristina Mallory
Joshua Rubin Abrams
Anne Schwartz
Maria-Veronica Ciocanel
Alexandria Volkening
Björn Sandstede
spellingShingle Kristina Mallory
Joshua Rubin Abrams
Anne Schwartz
Maria-Veronica Ciocanel
Alexandria Volkening
Björn Sandstede
Influenza spread on context-specific networks lifted from interaction-based diary data
Royal Society Open Science
dynamic network
disease spread
susceptible–infected–recovered model
influenza
social distance
author_facet Kristina Mallory
Joshua Rubin Abrams
Anne Schwartz
Maria-Veronica Ciocanel
Alexandria Volkening
Björn Sandstede
author_sort Kristina Mallory
title Influenza spread on context-specific networks lifted from interaction-based diary data
title_short Influenza spread on context-specific networks lifted from interaction-based diary data
title_full Influenza spread on context-specific networks lifted from interaction-based diary data
title_fullStr Influenza spread on context-specific networks lifted from interaction-based diary data
title_full_unstemmed Influenza spread on context-specific networks lifted from interaction-based diary data
title_sort influenza spread on context-specific networks lifted from interaction-based diary data
publisher The Royal Society
series Royal Society Open Science
issn 2054-5703
publishDate 2021-01-01
description Studying the spread of infections is an important tool in limiting or preventing future outbreaks. A first step in understanding disease dynamics is constructing networks that reproduce features of real-world interactions. In this paper, we generate networks that maintain some features of the partial interaction networks that were recorded in an existing diary-based survey at the University of Warwick. To preserve realistic structure in our artificial networks, we use a context-specific approach. In particular, we propose different algorithms for producing larger home, work and social networks. Our networks are able to maintain much of the interaction structure in the original diary-based survey and provide a means of accounting for the interactions of survey participants with non-participants. Simulating a discrete susceptible–infected–recovered model on the full network produces epidemic behaviour which shares characteristics with previous influenza seasons. Our approach allows us to explore how disease transmission and dynamic responses to infection differ depending on interaction context. We find that, while social interactions may be the first to be reduced after influenza infection, limiting work and school encounters may be significantly more effective in controlling the overall severity of the epidemic.
topic dynamic network
disease spread
susceptible–infected–recovered model
influenza
social distance
url https://royalsocietypublishing.org/doi/pdf/10.1098/rsos.191876
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