Attentional-Biased Stochastic Gradient Descent
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Abstract (arXiv)
In this paper, we present a simple yet effective provable method (named ABSGD) for addressing the data imbalance or label noise problem in deep learning. Our method is a simple modification to momentum SGD where we assign an individual importance weight to each sample in the mini-batch. The individual-level weight of sampled data is systematically proportional to the exponential of a scaled loss value of the data, where the scaling factor is interpreted as the regularization parameter in the framework of distributionally robust optimization (DRO). Depending on whether the scaling factor is positive or negative, ABSGD is guaranteed to converge to a stationary point of an information-regularized min-max or min-min DRO problem, respectively. Compared with existing class-level weighting schemes, our method can capture the diversity between individual examples within each class. Compared with existing individual-level weighting methods using meta-learning that require three backward propagations for computing mini-batch stochastic gradients, our method is more efficient with only one backward propagation at each iteration as in standard deep learning methods. ABSGD is flexible enough to combine with other robust losses without any additional cost. Our empirical studies on several benchmark datasets demonstrate the effectiveness of the proposed method.footnoteCode is available at:urlhttps://github.com/qiqi-helloworld/ABSGD/
Key facts. Cited by 9 papers in the map (data through 14 Oct 2026). First posted on arXiv 13 Dec 2020.
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Citing papers per year: 2023: 2; 2024: 5; 2025: 1; 2026: 1.
9 papers.
- 2024A Short Survey on Importance Weighting for Machine Learningcited by 15
- 2024Take the Bull by the Horns: Hard Sample-Reweighted Continual Training Improves LLM Generalizationcited by 12
- 2023Non-Smooth Weakly-Convex Finite-sum Coupled Compositional Optimizationcited by 10
- 2023Stochastic Re-weighted Gradient Descent via Distributionally Robust Optimizationcited by 6
- 2024Communication-Efficient Federated Group Distributionally Robust Optimizationcited by 3
- 2024Divide and Fuse: Body Part Mesh Recovery from Partially Visible Human Imagescited by 2
- 2024On the KL-Divergence-based Robust Satisficing Modelcited by 1
- 2025Model Steering: Learning with a Reference Model Improves Generalization Bounds and Scaling Lawscited by 1
- 2026A Geometry-Aware Efficient Algorithm for Compositional Entropic Risk Minimizationcited by 1
- 2026A Geometry-Aware Efficient Algorithm for Compositional Entropic Risk Minimization2 Feb 2026
- 2025Model Steering: Learning with a Reference Model Improves Generalization Bounds and Scaling Laws10 May 2025
- 2024Communication-Efficient Federated Group Distributionally Robust Optimization8 Oct 2024
- 2024On the KL-Divergence-based Robust Satisficing Model17 Aug 2024
- 2024Divide and Fuse: Body Part Mesh Recovery from Partially Visible Human Images12 Jul 2024
- 2024A Short Survey on Importance Weighting for Machine Learning15 Mar 2024
- 2024Take the Bull by the Horns: Hard Sample-Reweighted Continual Training Improves LLM Generalization22 Feb 2024
- 2023Non-Smooth Weakly-Convex Finite-sum Coupled Compositional Optimization5 Oct 2023
- 2023Stochastic Re-weighted Gradient Descent via Distributionally Robust Optimization15 Jun 2023