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Fast Algorithms for Hypergraph PageRank with Applications to Semi-Supervised Learning

ICML 2024 · Label-efficient and robust learning › Semi-supervised learning · approach: Holistic semi-supervised pipelines

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Gives fast first-order algorithms for hypergraph Laplacian systems and hypergraph personalized PageRank over a broad class of convex 2-positively homogeneous hypergraph potentials, with convergence guarantees and speedups on semi-supervised categorical clustering and manifold learning.

Problem

Solving hypergraph Laplacian systems and computing hypergraph PageRank vectors is hard because the hypergraph Laplacian is non-linear and non-smooth, so scalable semi-supervised learning with hypergraphs has been impractical.

Approach

A Richardson-like subgradient method for convex 2-positively homogeneous hypergraph potentials, with a multiplicative-error analysis that exploits 2-positive homogeneity; it applies to any potential in the general family and achieves linear-time iterations, with a clique-expansion preconditioner giving a lambda_G-independent bound for U-infinity on bounded-rank hypergraphs.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
use hypergraph PPR instead of graph PPRSemi-supervised manifold clustering · Concentric hyperspheres and hyperrectangles, especially at higher dimensionsAUCHelped
use the proposed algorithm instead of competing methodsUCI categorical classification · UCI datasetsrunning time: tenfold speed-upHelped
use the proposed algorithm instead of competing methodsUCI categorical classification · UCI datasetsclassification performanceNo clear effect
use the Gaussian-kernel weighted potential instead of the unweighted U∞ potential (ablation)Hypergraph PPR for manifold learning · Manifold learningAUCHelped

Surprising findings

Limitations

Experimental setup

Datasets: UCI categorical datasets (Zoo, Twenty Newsgroups, and others) synthetic concentric hyperspheres and hyperrectangles

Benchmarks: UCI categorical semi-supervised classification synthetic manifold semi-supervised AUC

Metrics: classification accuracy AUC running time convergence to minimizer

Baselines: Hein et al. 2013 primal-dual hybrid gradient Li et al. 2020 QDSFM Subgradient QDSFM graph PPR

Builds on: Spielman-Teng nearly-linear-time Laplacian solvers Hein et al. 2013 hypergraph total variation Takai et al. 2020 hypergraph PageRank Li et al. 2020 QDSFM optimistic mirror descent

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