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On the Validity of Conformal Prediction for Network Data Under Non-Uniform Sampling
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We study the properties of conformal prediction for network data under various sampling mechanisms that commonly arise in practice but often result in a non-representative sample of nodes. We interpret these sampling mechanisms as selection rules applied to a superpopulation and study the validity of conformal prediction conditional on an appropriate selection event. We show that the sampled subarray is exchangeable conditional on the selection event if the selection rule satisfies a permutation invariance property and a joint exchangeability condition holds for the superpopulation. Our result implies the finite-sample validity of conformal prediction for certain selection events related to ego networks and snowball sampling. We also show that when data are sampled via a random walk on a graph, a variant of weighted conformal prediction yields asymptotically valid prediction sets for an independently selected node from the population.
Forward citations
Cited by 2 Pith papers
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Network Weighted Functional Regression: a method for modeling dependencies between functional data in a network
A network-weighted functional regression with conformal prediction bands is presented for functional data on graphs; coverage guarantees hold only for the supremum-norm score, not the proposed L2 score.
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Enhancing Trustworthiness of Graph Neural Networks with Rank-Based Conformal Training
RCP-GNN couples a rank-based conformal score with a differentiable conformal training loss to produce smaller prediction sets at target empirical coverage for node classification.
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