Completed Mathematics & Statistics Public Health & Healthcare

Real-time modelling for forecasts during infectious disease outbreaks

In plain English

AI plain-English summary

During an outbreak, public health officials must decide where to send limited vaccines or how to allocate testing kits—and they need to know now, not after the outbreak is over. Mathematical models can forecast how a disease will spread, but it is not yet clear how best to combine the different streams of data that pour in during a real outbreak: case numbers, genetic sequences of the pathogen, travel patterns, and hospital admissions. This fellowship will systematically test which combinations of data produce the most accurate forecasts, and—crucially—how the accuracy of those forecasts affects the quality of the decisions that follow. If the work succeeds, it will produce a computational platform that can be dropped into an active outbreak and give decision-makers a clear, evidence-based recommendation within hours, not weeks. That could mean vaccines reach the right neighbourhoods first, or that lockdowns are lifted sooner without sparking a second wave. The platform would not replace human judgment, but it would give officials a reliable tool to test “what if” scenarios before committing scarce resources.

View original technical description
Local and international public health bodies often face difficult decisions during infectious disease outbreaks. Limits on human resources or logistics, for example in the speed and scale of vaccine production and delivery, require prioritisation of areas or population groups when rolling out an intervention. It is now possible to collect a wealth of epidemiological, genetic, spatial and behavioural data during an outbreak and make it available immediately for analysis. It remains an open question how these data are best combined for forecasts that can inform decision making. My fellowship aims to systematically investigate and improve the predictive capabilities of mathematical models during outbreaks. In particular, I will develop methods to combine different data sources in order to analyse an outbreak in real time. By testing these methods on a range of recent epidemic datasets, I will assess the predictive capabilities of models using different amounts and types of data. A particular focus will be on translating forecasts into recommendations for decisions, and on how the accuracy of forecasts affects the quality of these decisions. All the work will be conducted with the aim of generating a computational platform that is readily deployable in an outbreak situation for meaningful decision support.

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Researchers

Sebastian Funk (EPMC Awardee)

Related Research

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Real-time modelling and inference of Covid-19 transmission and control

Original classification

Senior Research Fellowship Basic

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