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This research advances performative prediction by introducing gradient-based optimization methods that remain effective under weaker assumptions regarding data distributions and loss functions. By explicitly estimating distribution shifts, the proposed algorithms achieve faster convergence in higher-dimensional settings compared to existing approaches with stricter constraints. This work is significant for improving the robustness of machine learning models deployed in dynamic environments where model usage alters future data patterns.
Adaptive Gradient-Based Methods for a Broader Class of Optimization Problems under Performative Prediction
arXiv:2607.26562v1 Announce Type: cross Abstract: We study optimization under performative prediction, where deploying a model affects the future data distribution. For this setting, several gradient-based approaches have been proposed. However, they typically assume specific data distributions or loss functions, which limit their practical applicability. To overcome these limitations, we propose a gradient-based optimization method with convergence guarantees under substantially weaker assumptions. Our method explicitly estimates the induced distribution shift through finite differences. It enables higher-dimensional optimization across broader classes of loss functions and data distributions. We also propose a practical variant that reduces the number of samples required. Numerical experiments demonstrate that our proposed algorithms converge faster and more consistently than existing ones.
Abstract:We study optimization under performative prediction, where deploying a model affects the future data distribution. For this setting, several gradient-based approaches have been proposed. However, they typically assume specific data distributions or loss functions, which limit their practical applicability. To overcome these limitations, we propose a gradient-based optimization method with convergence guarantees under substantially weaker assumptions. Our method explicitly estimates the induced distribution shift through finite differences. It enables higher-dimensional optimization across broader classes of loss functions and data distributions. We also propose a practical variant that reduces the number of samples required. Numerical experiments demonstrate that our proposed algorithms converge faster and more consistently than existing ones.
Optimization and Control (math.OC); Machine Learning (cs.LG)
arXiv:2607.26562 [math.OC]
(or arXiv:2607.26562v1 [math.OC] for this version)
https://doi.org/10.48550/arXiv.2607.26562 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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