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. 2013 May 17;11(3):142–150. doi: 10.1016/j.gpb.2013.04.002

Table 2.

Model building strategies and performance of enhancer prediction methods

Category Method Operational model Positive predictive value (%) Note Ref
Discriminative model Heintzman’s method Thresholds of histone modification profiles 39.5 Mapped to distal p300 binding sites in HeLa cells [5]
Visel’s method (2009) Thresholds of p300 binding profiles 87.7 With reproducible enhancer activity in transgenic mouse [46]
Narlikar’s method Linear regression 62 With reproducible enhancer activity in vivo in mouse and zebrafish [65]
Zinzen’s method Support vector machine 71.4 With reproducible enhancer activity in transgenic Drosophila [67]
Firpi’s method Time-delay neural network 66.3 Overlapped with p300 binding sites, Dnase I hypersensitivity sites or TRAP220 binding sites in HeLa cells [10]
Lee’s method Support vector machine 74.5 Overlapped with Dnase I hypersensitive enhancers in embryonic mouse whole brain cells [44]
ChromaGenSVM Support vector machine 57 Overlapped with p300 binding sites, Dnase I hypersensitivity sites or TRAP220 binding sites in HeLa cells [9]



Probabilistic graphical model Won’s method Hidden Markov model 54.8 Overlapped with p300 binding sites, Dnase I hypersensitivity sites or TRAP220 binding sites in HeLa cells [11]
Bonn’s method Bayesian network 78 Overlapped with previously identified TF binding sites in Drosophila [6]



Other Chen’s method Multinomial logistic 83 Overlapped with at least one TF peak from 7 mouse embryonic stem cell ChIP-seq datasets [8]
Yip’s method Random forest 67 With enhancer activity in vivo in mouse and medaka fish (28/42) [50]

Note: The performance shown here is the reported performance compared to experimental results. The positive predictive value (percentage) was calculated as follows: positive predictive value = true positive/(true positive + false positive).