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This paper challenges the prevailing academic consensus by demonstrating that older, simpler optimization methods often outperform complex "state-of-the-art" solvers in high-dimensional $L_1$ penalized logistic regression tasks. The study highlights critical pitfalls in current research practices where theoretical non-convergence warnings lead to the dismissal of practically superior baselines like LBFGS on sub-gradients. For industry practitioners building MLOps pipelines, the key takeaway is that prioritizing robustness and scalability over theoretical novelty can significantly improve deployment efficiency on massive datasets.
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Simpler Methods Work Better for L1 Penalized Logistic Models and Large Datasets

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2609.23995v1 Announce Type: new Abstract: Linear models with an $L_1$-norm penalty remain state-of-the-art for high-dimensional ($d > 1,000,000$) tasks, offering a straightforward method for solving real-world industry problems. Despite their widespread use in industry and utility, many $L_1$ solvers are not effective for general use, are prohibitively slow, and are ineffective in parallelization. This makes them difficult to train in an MLOps pipeline on large industry-scale corpora. In this work, we test several proposed ``state-of-the-art'' solutions from the literature and find that older methods are currently far superior for general use. We also identify several recommendations for academics to perform research that avoids erroneously overconfident results, which can prevent the transition to production use. Equally surprising, we find that a new and simple baseline, using LBFGS on a sub-gradient, is highly effective with minor tweaks, despite being dismissed in the literature for theoretical non-convergence. In practice, we find it is an easier-to-support and easier-to-scale method for production use.

Abstract:Linear models with an $L_1$-norm penalty remain state-of-the-art for high-dimensional ($d > 1,000,000$) tasks, offering a straightforward method for solving real-world industry problems. Despite their widespread use in industry and utility, many $L_1$ solvers are not effective for general use, are prohibitively slow, and are ineffective in parallelization. This makes them difficult to train in an MLOps pipeline on large industry-scale corpora. In this work, we test several proposed ``state-of-the-art'' solutions from the literature and find that older methods are currently far superior for general use. We also identify several recommendations for academics to perform research that avoids erroneously overconfident results, which can prevent the transition to production use. Equally surprising, we find that a new and simple baseline, using LBFGS on a sub-gradient, is highly effective with minor tweaks, despite being dismissed in the literature for theoretical non-convergence. In practice, we find it is an easier-to-support and easier-to-scale method for production use.

Machine Learning (cs.LG)

arXiv:2609.23995 [cs.LG]

(or arXiv:2609.23995v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2609.23995 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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