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Bayesian functional enrichment analysis for the Reactome database

Jing Cao

Department of Statistical Science, Southern Methodist University, Dallas, TX, U.S.A

jcao@smu.edu

Pages 185-193 | Received 10 Apr. 2017, Accepted 05 Aug. 2017, Published online: 17 Oct. 2017,
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ABSTRACT

The first step in the analysis of high-throughput experiment results is often to identify genes or proteins with certain characteristics, such as genes being differentially expressed (DE). To gain more insights into the underlying biology, functional enrichment analysis is then conducted to provide functional interpretation for the identified genes or proteins. The hypergeometric P value has been widely used to investigate whether genes from predefined functional terms, e.g., Reactome, are enriched in the DE genes. The hypergeometric P value has several limitations: (1) computed independently for each term, thus neglecting biological dependence; (2) subject to a size constraint that leads to the tendency of selecting less-specific terms. In this paper, a Bayesian approach is proposed to overcome these limitations by incorporating the interconnected dependence structure of biological functions in the Reactome database through a CAR prior in a Bayesian hierarchical logistic model. The inference on functional enrichment is then based on posterior probabilities that are immune to the size constraint. This method can detect moderate but consistent enrichment signals and identify sets of closely related and biologically meaningful functional terms rather than isolated terms. The performance of the Bayesian method is demonstrated via a simulation study and a real data application.

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