Szemerédi Regularity Lemma in Graph Machine Learning
summary
Uses the weak Szemerédi regularity lemma to map graphs with node features into graphons and define a cut distance metric that makes the space compact, yields explicit covering-number bounds, and—combined with Lipschitz message-passing—gives distribution-free generalization guarantees. Builds a practical pipeline that fits an intersecting community graph (ICG) by minimizing a Frobenius proxy (avoiding NP-hard cut optimization), densifies sparse inputs, and achieves linear-in-n complexity with strong benchmark accuracy.
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chapters (25)
- 0:00Introduction
- 0:42GNN theory motivation
- 3:12Proving theoretical results
- 6:51Message passing networks
- 9:19Szemerédi Regularity Lemma
- 14:23Lemma interpretation
- 15:27Why graphons are needed
- 18:44Graphons as generative models
- 20:08Irregularity in graphons
- 23:06Graphon signal cut distance
- 24:29Weak regularity for signals
- 26:34Graphon signal space compactness
- 27:58Compatibility with message passing networks
- 31:20MPN Lipschitz continuity
- 32:23Generalization theorem
- 33:26Practical applications
- 34:53Computing partitioning challenges
- 36:17Overlapping communities
- 38:35Sparsity in cut norm
- 41:51Frobenius error minimization
- 44:00Graph densification
- 45:27Summary
- 46:52Weak regularity as tool
- 47:39Graphon assumptions
- 50:06Q&A
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