mlsanityData to 14 Oct 2026

What Is The Performance Ceiling of My Classifier? Utilizing Category-Wise Influence Functions for Pareto Frontier Analysis

arXiv 2510.03950 ↗First posted 4 Oct 2025cs.LGcited by 0

Not on the map. Why?

Abstract (arXiv)

Data-centric learning seeks to improve model performance from the perspective of data quality, and has been drawing increasing attention in the machine learning community. Among its key tools, influence functions provide a powerful framework to quantify the impact of individual training samples on model predictions, enabling practitioners to identify detrimental samples and retrain models on a cleaner dataset for improved performance. However, most existing work focuses on the question: "what data benefits the learning model?" In this paper, we take a step further and investigate a more fundamental question: "what is the performance ceiling of the learning model?" Unlike prior studies that primarily measure improvement through overall accuracy, we emphasize category-wise accuracy and aim for Pareto improvements, ensuring that every class benefits, rather than allowing tradeoffs where some classes improve at the expense of others. To address this challenge, we propose category-wise influence functions and introduce an influence vector that quantifies the impact of each training sample across all categories. Leveraging these influence vectors, we develop a principled criterion to determine whether a model can still be improved, and further design a linear programming-based sample reweighting framework to achieve Pareto performance improvements. Through extensive experiments on synthetic datasets, vision, and text benchmarks, we demonstrate the effectiveness of our approach in estimating and achieving a model's performance improvement across multiple categories of interest.

Key facts. No citing papers in the map yet (data through 14 Oct 2026). Builds on 36 of its 62 references that are in the map. First posted on arXiv 4 Oct 2025.

Builds on

36 of 62 references.

References · 36

  1. 2015Deep Residual Learning for Image Recognitioncited by 52,096
  2. 2018BERT: Pre-training of Deep Bidirectional Transformers for Language Understandingcited by 40,399
  3. 2015Character-level Convolutional Networks for Text Classificationcited by 2,330
  4. 2017Understanding Black-box Predictions via Influence Functionscited by 1,741
  5. 2020Estimating Training Data Influence by Tracing Gradient Descentcited by 580
  6. 2021Deep Learning on a Data Diet: Finding Important Examples Early in Trainingcited by 533
  7. 2020What Neural Networks Memorize and Why: Discovering the Long Tail via Influence Estimationcited by 497
  8. 2023Studying Large Language Model Generalization with Influence Functionscited by 326
  9. 2020Influence Functions in Deep Learning Are Fragilecited by 252
  10. 2022TinyViT: Fast Pretraining Distillation for Small Vision Transformerscited by 234
  11. 2019Pareto Multi-Task Learningcited by 224
  12. 2022Datamodels: Predicting Predictions from Training Datacited by 189
24 more
  1. 2018Representer Point Selection for Explaining Deep Neural Networkscited by 187
  2. 2020Minimax Pareto Fairness: A Multi Objective Perspectivecited by 153
  3. 2020Explaining Black Box Predictions and Unveiling Data Artifacts through Influence Functionscited by 144
  4. 2022If Influence Functions are the Answer, Then What is the Question?cited by 144
  5. 2022Dataset Pruning: Reducing Training Data by Examining Generalization Influencecited by 133
  6. 2021Scaling Up Influence Functionscited by 132
  7. 2023DataInf: Efficiently Estimating Data Influence in LoRA-tuned LLMs and Diffusion Modelscited by 123
  8. 2020From ImageNet to Image Classification: Contextualizing Progress on Benchmarkscited by 90
  9. 2021Influence Selection for Active Learningcited by 84
  10. 2024Data Shapley in One Training Runcited by 81
  11. 2021Input Similarity from the Neural Network Perspectivecited by 79
  12. 2021RETRIEVE: Coreset Selection for Efficient and Robust Semi-Supervised Learningcited by 74
  13. 2023Data Pruning via Moving-one-Sample-outcited by 67
  14. 2021HYDRA: Hypergradient Data Relevance Analysis for Interpreting Deep Neural Networkscited by 38
  15. 2023Self-Influence Guided Data Reweighting for Language Model Pre-trainingcited by 37
  16. 2024Training Data Attribution via Approximate Unrolled Differentiationcited by 34
  17. 2023Theoretical and Practical Perspectives on what Influence Functions Docited by 29
  18. 2023Training Data Attribution for Diffusion Modelscited by 24
  19. 2023Revisiting the Fragility of Influence Functionscited by 20
  20. 2023Make Every Example Count: On the Stability and Utility of Self-Influence for Learning from Noisy NLP Datasetscited by 19
  21. 2024Efficient Data Subset Selection to Generalize Training Across Models: Transductive and Inductive Networkscited by 13
  22. 2021Fair Clustering Using Antidote Datacited by 10
  23. 2024Outlier Gradient Analysis: Efficiently Identifying Detrimental Training Samples for Deep Learning Modelscited by 10
  24. 2023Deeper Understanding of Black-box Predictions via Generalized Influence Functionscited by 7

Built on by

Not cited yet.