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Improved Approximations for Hard Graph Problems using Predictions

ICML 2025 · Graph learning › Graph algorithms and clustering · approach: Graph comparison and random features · 0 citations (OpenAlex)

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Extends the epsilon-prediction model to edge-based bit predictions for NP-hard graph problems and gives learning-augmented approximations for Vertex Cover, Weighted VC, Set Cover, MIS, and MaxCut that beat classical barriers.

Problem

Classical approximation barriers for NP-hard graph problems (Vertex Cover, Set Cover, MIS, MaxCut) can be circumvented if algorithms receive noisy predictions, but prior vertex-based prediction models give weak guarantees or need strong assumptions on error counts.

Approach

Each edge provides independent epsilon-correlated bits about whether each endpoint is in an optimal solution; high-degree vertices are decided by majority vote over their incident edge bits, while low-degree parts are handled by classical solvers, and the two solutions are combined carefully.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Add ε-correlated edge predictions to the Vertex Cover approximation algorithmVertex Cover · Vertex Coverapproximation ratio: 2 -> 2-\Omega \left( \frac{\log \log 1/\varepsilon }{\log 1/\varepsilon} \right)Helped
Add ε-correlated edge predictions to the Weighted Vertex Cover approximation algorithmWeighted Vertex Cover · Weighted Vertex Coverapproximation ratio: 2 -> 2-\Omega \left( \frac{\log \log 1/\varepsilon }{\log 1/\varepsilon} \right)Helped
Add ε-correlated edge predictions to the Set Cover approximation algorithmSet Cover · Set Coverapproximation ratio: O(\log n) -> O(\log 1/\varepsilon)Helped
Add ε-correlated edge predictions to the Maximum Independent Set algorithmMaximum Independent Set · Maximum Independent Setapproximation factor: \Omega \left( \frac{\log n}{n \log \log n} \right) -> \Omega\left( \frac{\varepsilon^2}{\log \log 1/\varepsilon} \right)Helped
Use edge rather than vertex predictions for MaxCutMaxCut · MaxCutapproximation factor: \alpha_{GW} + \tilde{\Omega}(\varepsilon^4) -> \alpha_{GW} + \tilde{\Omega}(\varepsilon^2)Helped
Use the high-/low-degree algorithm with predictions rather than the prediction-only heuristicMaximum Independent Set · facebook, congress, and twitch graphsapproximation ratioHelped
Increase prediction quality ε for the learning-based algorithmsMaximum Independent Set · facebook and congress graphsapproximation ratioHelped

Surprising findings

Limitations

Experimental setup

Datasets: facebook social network graph congress Twitter graph twitch user subscription graph (pruned to 50,000 nodes)

Benchmarks: facebook congress twitch

Metrics: approximation ratio (mean over 10 trials)

Baselines: greedy MIS approximation predictions-only heuristic CPLEX integer programming optimum

Builds on: epsilon-prediction model (Cohen-Addad et al. 2024) Caro-Wei bound Goemans-Williamson MaxCut bounded-degree independent set approximation

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