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This research introduces "ordered momentum," a framework that resolves bias in asynchronous stochastic gradient descent caused by data-dependent delays, achieving optimal convergence rates for both convex and non-convex objectives. By establishing the first convergence guarantees under these specific delay conditions while maintaining parallelization benefits, the work offers a robust theoretical foundation for scaling distributed AI training without sacrificing accuracy.
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Bringing Order to Asynchronous SGD: Towards Optimality under Data-Dependent Delays with Momentum

arXiv2 min read

arXiv:2605.02043v3 Announce Type: replace Abstract: Asynchronous SGD enables scalable distributed training but suffers from stale gradients. When delays depend on the data, slower samples may be underrepresented, biasing training toward faster samples. We introduce ordered momentum, a unified framework that attains the best-known rates for smooth convex and non-convex objectives under both data-independent and data-dependent delays. Notably, we establish (i) the first convergence guarantee for smooth convex objectives with data-dependent delays and, among analyses of data-dependent delays, the first to (ii) benefit from parallelization and (iii) match the tight data-independent rate, with a leading stochastic term independent of the number of workers. Finally, we derive robust learning rates that simplify hyperparameter tuning across convex and non-convex settings.

Abstract:Asynchronous SGD enables scalable distributed training but suffers from stale gradients. When delays depend on the data, slower samples may be underrepresented, biasing training toward faster samples. We introduce ordered momentum, a unified framework that attains the best-known rates for smooth convex and non-convex objectives under both data-independent and data-dependent delays. Notably, we establish (i) the first convergence guarantee for smooth convex objectives with data-dependent delays and, among analyses of data-dependent delays, the first to (ii) benefit from parallelization and (iii) match the tight data-independent rate, with a leading stochastic term independent of the number of workers. Finally, we derive robust learning rates that simplify hyperparameter tuning across convex and non-convex settings.

Machine Learning (cs.LG)

arXiv:2605.02043 [cs.LG]

(or arXiv:2605.02043v3 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2605.02043 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 204 words

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