ML for discrete optimization: Theoretical foundations
summary
Presents two concrete methods with proofs and experiments: a GNN pipeline called MAGNOLIA trains on exponential-time marginal value-to-go labels from tiny graphs (uses GENConv, predicts each offline+skip marginal value-to-go and matches the highest) and outperforms greedy, thresholded greedy, and LP-rounding; theory shows value-to-go is nearly local on random geometric graphs so GNNs with O(log n) layers approximate it. Separately, leverages calibrated predictions and sharpness to give rent-or-buy and online scheduling algorithms whose competitive ratio or regret provably improves with calibration and predictor variance, validated on real data.
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chapters (4)
- 0:00Introduction to ML and Opt
- 9:39GNNs for online matching
- 30:10Algorithms with predictions
- 55:33Future directions and conclusion
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