2020
DOI: 10.1098/rsos.192151
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Augmenting disease maps: a Bayesian meta-analysis approach

Abstract: Analysis of spatial patterns of disease is a significant field of research. However, access to unit-level disease data can be difficult for privacy and other reasons. As a consequence, estimates of interest are often published at the small area level as disease maps. This motivates the development of methods for analysis of these ecological estimates directly. Such analyses can widen the scope of research by drawing more insights from published disease maps or atlases. The present study proposes a hierarchical… Show more

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Cited by 4 publications
(5 citation statements)
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“…Since correlation is a standardised form of covariance, the precision of estimates and the correlation between cancers are related. Since the choice of cancer types included may influence the results, we recommend comparing the multivariate results with the univariate results (using an approach such as [32]). Also, because this model was developed for summarised modelled estimates the proposed model cannot be applied to raw incidence rates without modifying, such as introducing some form of spatial smoothing and changing the distributional assumptions at different levels.…”
Section: Discussionmentioning
confidence: 99%
See 2 more Smart Citations
“…Since correlation is a standardised form of covariance, the precision of estimates and the correlation between cancers are related. Since the choice of cancer types included may influence the results, we recommend comparing the multivariate results with the univariate results (using an approach such as [32]). Also, because this model was developed for summarised modelled estimates the proposed model cannot be applied to raw incidence rates without modifying, such as introducing some form of spatial smoothing and changing the distributional assumptions at different levels.…”
Section: Discussionmentioning
confidence: 99%
“…where µ i is the overall mean of ith cancer and ω i be the variance covariance term accounting for variation between the means of different regions and same cancers. We are not interested in these parameters as we already performed univariate analysis to see the means and variation due to remoteness for each cancer separately [32]. The overall mean of ith cancer, µ i can then be modelled as:…”
Section: A2 More Hierarchy In the Multivariate Meta-analysis Modelmentioning
confidence: 99%
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“…For parametric modelling of disease incidence or mortality, the response variable is usually assumed to have a Poisson distribution with an expected value that can be explained by a function of covariates and spatial random effects. Gaussian distributions are also commonly used for modelling continuous response variables such as standardised incidence ratios (SIRs) on a logarithmic scale [40] and binomial distributions are used for proportions [41]. There is a wide range of spatial prior formulations in the literature, including basis functions, deformation methods, Gaussian Markov Random Field (GMRF) methods etc.…”
Section: Recap Of Bayesian Parametric Spatial Modelsmentioning
confidence: 99%
“…Diggle et al [8] considered an application to the mapping of environmental count data. Jahan et al [11] proposed a hierarchical Bayesian meta-analysis model which analysed the point and interval estimates from an online atlas, where they modelled the published cancer incidence estimates available as part of the online Australian Cancer Atlas. Wakefield et al [24] looked into an application to the mapping of cancer risk in the United Kingdom.…”
Section: Introductionmentioning
confidence: 99%