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Robust Graph Matching when Nodes are Corrupt

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arxiv 2310.18543 v2 pith:CMI3QT7P submitted 2023-10-28 math.ST stat.APstat.TH

classification math.STstat.APstat.TH
keywords nodesnetworkscorruptestimatorfractionmodelpositiveconditions
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Two models are introduced to investigate graph matching in the presence of corrupt nodes. The weak model, inspired by biological networks, allows one or both networks to have a positive fraction of molecular entities interact randomly with their network. For this model, it is shown that no estimator can correctly recover a positive fraction of the corrupt nodes. Necessary conditions for any estimator to correctly identify and match all the uncorrupt nodes are derived, and it is shown that these conditions are also sufficient for the k-core estimator. The strong model, inspired by social networks, permits one or both networks to have a positive fraction of users connect arbitrarily. For this model, detection of corrupt nodes is impossible. Even so, we show that if only one of the networks is compromised, then under appropriate conditions, the maximum overlap estimator can correctly match a positive fraction of nodes albeit without explicitly identifying them.

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