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Dataset Distillation by Influence Matching

arXiv 2607.16859 ↗First posted 18 Jul 2026cs.CVcited by 0

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Abstract (arXiv)

We revisit dataset distillation from an outcome-centric perspective. Rather than aligning process surrogates (per-step gradients or training trajectories), Influence Matching (Inf-Match) aligns the final outcome of training: it learns a compact synthetic set whose effect on the converged parameters matches that of the full dataset. Concretely, we introduce a fully differentiable, sample-level influence estimator that quantifies parameter shifts from adding or removing data, without time-consuming inverse-Hessian products or convexity assumptions. The estimator runs in linear time by unrolling the optimization dynamics and applying a first-order Taylor approximation. We then learn the synthetic set by minimizing the mismatch between its influence and that of the real dataset, yielding outcome alignment rather than heuristic process imitation. Inf-Match delivers the best accuracy across standard classification benchmarks. For instance, on Tiny-ImageNet (IPC=10), Inf-Match attains 31.5%, a +4.7% improvement over NCFM. Beyond classification, Inf-Match scales to vision-language distillation on Flickr30K, outperforming strong process-matching baselines. For instance, with 200 to 1000 synthetic samples, our method achieved a leading impressive average on image/text retrieval tasks, higher than NCFM by 2.5%. The code will be released via https://github.com/hrtan/infmatch.

Key facts. No citing papers in the map yet (data through 7 Oct 2026). Builds on 46 of its 67 references that are in the map. First posted on arXiv 18 Jul 2026.

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References · 46

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  6. 2020Estimating Training Data Influence by Tracing Gradient Descentcited by 565
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34 more
  1. 2014Identifying and attacking the saddle point problem in high-dimensional non-convex optimizationcited by 286
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  3. 2022Scaling Up Dataset Distillation to ImageNet-1K with Constant Memorycited by 180
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  5. 2019On the Accuracy of Influence Functions for Measuring Group Effectscited by 146
  6. 2022Minimizing the Accumulated Trajectory Error to Improve Dataset Distillationcited by 142
  7. 2023Squeeze, Recover and Relabel: Dataset Condensation at ImageNet Scale From A New Perspectivecited by 136
  8. 2022Training Data Influence Analysis and Estimation: A Surveycited by 134
  9. 2022Dataset Pruning: Reducing Training Data by Examining Generalization Influencecited by 132
  10. 2021Scaling Up Influence Functionscited by 130
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  12. 2023Improved Distribution Matching for Dataset Condensationcited by 124
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  18. 2021Neural Networks as Kernel Learners: The Silent Alignment Effectcited by 106
  19. 2022Remember the Past: Distilling Datasets into Addressable Memories for Neural Networkscited by 104
  20. 2020Flexible Dataset Distillation: Learn Labels Instead of Imagescited by 91
  21. 2023DataDAM: Efficient Dataset Distillation with Attention Matchingcited by 83
  22. 2019On Second-Order Group Influence Functions for Black-Box Predictionscited by 78
  23. 2023Generalized Large-Scale Data Condensation via Various Backbone and Statistical Matchingcited by 69
  24. 2019Data Cleansing for Models Trained with SGDcited by 67
  25. 2023Data Pruning via Moving-one-Sample-outcited by 67
  26. 2023M3D: Dataset Condensation by Minimizing Maximum Mean Discrepancycited by 49
  27. 2023DiM: Distilling Dataset into Generative Modelcited by 45
  28. 2025Dataset Distillation with Neural Characteristic Function: A Minmax Perspectivecited by 45
  29. 2023Sequential Subset Matching for Dataset Distillationcited by 40
  30. 2021RKHS-SHAP: Shapley Values for Kernel Methodscited by 30
  31. 2023MarS3D: A Plug-and-Play Motion-Aware Model for Semantic Segmentation on Multi-Scan 3D Point Cloudscited by 19
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  33. 2025Aligning Effective Tokens with Video Anomaly in Large Language Modelscited by 7
  34. 2025Equipping Vision Foundation Model with Mixture of Experts for Out-of-Distribution Detectioncited by 5

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