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Benchmarking a Simple Yet Effective Approach for Inferring Gene Regulatory Networks from Systems Genetics Data

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Gene Network Inference

Abstract

We apply our recently proposed gene regulatory network (GRN) reconstruction framework for genetical genomics data to the StatSeq data. This method uses, in a first step, simple genotype–phenotype and phenotype–phenotype correlation measures to construct an initial GRN. This graph contains a high number of false positive edges that are reduced by (i) identifying eQTLs and by retaining only one candidate edge per eQTL, and (ii) by removing edges reflecting indirect effects by means of TRANSWESD, a transitive reduction approach. We discuss the general performance of our framework on the StatSeq in silico dataset by investigating the sensitivity of the two required threshold parameters and by analyzing the impact of certain network features (size, marker distance, and biological variance) on the reconstruction performance. Using selected examples, we also illustrate prominent sources of reconstruction errors. As expected, best results are obtained with large number of samples and larger marker distances. A less intuitive result is that significant (but not too large) biological variance can increase the reconstruction quality. Furthermore, a somewhat surprising finding was that the best performance (in terms of AUPR) could be found for networks of medium size (1,000 nodes), which we had expected to see for networks of small size (100 nodes).

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Correspondence to Steffen Klamt .

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Heise, S., Flassig, R.J., Klamt, S. (2013). Benchmarking a Simple Yet Effective Approach for Inferring Gene Regulatory Networks from Systems Genetics Data. In: de la Fuente, A. (eds) Gene Network Inference. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-45161-4_3

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