Accelerating Single-Pass SGD for Generalized Linear Prediction
- URL: http://arxiv.org/abs/2603.01951v1
- Date: Mon, 02 Mar 2026 15:04:00 GMT
- Title: Accelerating Single-Pass SGD for Generalized Linear Prediction
- Abstract summary: We study generalized linear prediction under a streaming setting, where each iteration uses only one fresh data point for a gradient-level update.<n>We propose the first algorithm that successfully incorporates momentum via a novel data-dependent proximal method, achieving dual-momentum acceleration.
- Score: 10.482631815569919
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: We study generalized linear prediction under a streaming setting, where each iteration uses only one fresh data point for a gradient-level update. While momentum is well-established in deterministic optimization, a fundamental open question is whether it can accelerate such single-pass non-quadratic stochastic optimization. We propose the first algorithm that successfully incorporates momentum via a novel data-dependent proximal method, achieving dual-momentum acceleration. Our derived excess risk bound decomposes into three components: an improved optimization error, a minimax optimal statistical error, and a higher-order model-misspecification error. The proof handles mis-specification via a fine-grained stationary analysis of inner updates, while localizing statistical error through a two-phase outer-loop analysis. As a result, we resolve the open problem posed by Jain et al. [2018a] and demonstrate that momentum acceleration is more effective than variance reduction for generalized linear prediction in the streaming setting.
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