Epidemiological forecast by state-of-the-art Gaidai multimodal bio-reliability scheme, combined with extrapolation by self-deconvolution
摘要
Presented case study advocates state-of-the-art spatiotemporal multivariate prognostics approach for epidemic/pandemic outbreak risk/hazard assessment.
MethodsNovel statistical methodology has been applied to clinical unfiltered datasets. To provide robust and reliable long-term prognostics of flu-type outbreak future risks, current research advocates bio-reliability prognostic approach, suitable for multi-regional bio, environmental, public (national) health systems, clinically monitored across representative periods. Novel non-parametric deconvolution extrapolation scheme was employed.
ResultsThe current study utilized clinically daily reported patient COVID-19 or SARS-COV-2 related counts, throughout major administrative locations in the Netherlands. It is seen from Fig. 7 that if epidemic would last 20 years instead of 1 year, then daily case number global maximum would increase less than twice.
ConclusionsA novel non-parametric deconvolution scheme was employed for extrapolation towards design return periods. The primary advantage of a non-parametric extrapolation scheme over existing parametric schemes lies within its numerical stability and accuracy.
Practical significanceKey objective was to benchmark proposed multimodal bio-reliability and risk assessment method, based on underlying recorded raw (clinical) patient data, accounting for territorial mapping. The latter has critical significance for early epidemiological prognostics.