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. 2022 Jun 27;38(Suppl 1):i264–i272. doi: 10.1093/bioinformatics/btac258

Table 5.

TT-Hybrid improves upon both of its constituent components on in-species prediction

Sparsity GLIDE Topsy-Turvy TT-Hybrid Random
p =0.8 0.380 0.038 0.387 0.004
p =0.6 0.437 0.079 0.451 0.009
p =0.4 0.412 0.105 0.423 0.014
p =0.2 0.318 0.133 0.354 0.019

Note: We generated partitions of the fly network of varying sparsity, using the sparsified networks as training for GLIDE. Sparsity p corresponds to the proportion of edges retained in the training network (p =0.8 is the least sparse). Topsy-Turvy was trained on human PPIs. TT-Hybrid combines the predictions from both GLIDE and Topsy-Turvy. Here, we report the AUPR of each method on the held out edges removed from each network subset. We also show the AUPR of the random control; due to varying class imbalances, AUPR scores increase slightly with increasing sparsity. Bold entries represent best performance.