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The paper applies Muon, a recently proposed optimizer that uses orthogonalized momentum updates for 2D weight matrices, to training recommender models, including generative ones. It reports about 32% fewer steps to convergence and about 12.6% average NDCG@10 gains over Adam/AdamW baselines. These are the authors' own benchmark results, so readers should check them against independent replications and the released code before assuming they transfer to production recommenders.
Surse care acoperăarXiv, AWS, NVIDIA, Neo4j

MuonRec: Shifting the Optimizer Paradigm Beyond Adam in Scalable Generative Recommendation

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2603.00416v2 Announce Type: replace-cross Abstract: Recommender systems (RecSys) are increasingly emphasizing scaling, leveraging larger architectures and more interaction data to improve personalization. Yet, despite the optimizer's pivotal role in training, modern RecSys pipelines almost universally default to Adam/AdamW, with limited scrutiny of whether these choices are truly optimal for recommendation. In this work, we revisit optimizer design for scalable recommendation and introduce MuonRec, the first framework that brings the recently proposed Muon optimizer to RecSys training. Muon performs orthogonalized momentum updates for 2D weight matrices via Newton-Schulz iteration, promoting diverse update directions and improving optimization efficiency. We develop an open-source training recipe for recommendation models and evaluate it across both traditional sequential recommenders and modern generative recommenders. Extensive experiments demonstrate that MuonRec reduces converged training steps by an average of 32.4\% while simultaneously improving final ranking quality. Specifically, MuonRec yields consistent relative gains in NDCG@10, averaging 12.6\% across all settings, with particularly pronounced improvements in generative recommendation models. These results consistently outperform strong Adam/AdamW baselines, positioning Muon as a promising new optimizer standard for RecSys training. Our code is available.

Abstract:Recommender systems (RecSys) are increasingly emphasizing scaling, leveraging larger architectures and more interaction data to improve personalization. Yet, despite the optimizer's pivotal role in training, modern RecSys pipelines almost universally default to Adam/AdamW, with limited scrutiny of whether these choices are truly optimal for recommendation. In this work, we revisit optimizer design for scalable recommendation and introduce MuonRec, the first framework that brings the recently proposed Muon optimizer to RecSys training. Muon performs orthogonalized momentum updates for 2D weight matrices via Newton-Schulz iteration, promoting diverse update directions and improving optimization efficiency. We develop an open-source training recipe for recommendation models and evaluate it across both traditional sequential recommenders and modern generative recommenders. Extensive experiments demonstrate that MuonRec reduces converged training steps by an average of 32.4\% while simultaneously improving final ranking quality. Specifically, MuonRec yields consistent relative gains in NDCG@10, averaging 12.6\% across all settings, with particularly pronounced improvements in generative recommendation models. These results consistently outperform strong Adam/AdamW baselines, positioning Muon as a promising new optimizer standard for RecSys training. Our code is available.

The article has been accepted by Frontiers of Computer Science (FCS), with the DOI: {https://doi.org/10.1007/s11704-026-61514-9}

Information Retrieval (cs.IR); Artificial Intelligence (cs.AI)

arXiv:2603.00416 [cs.IR]

(or arXiv:2603.00416v2 [cs.IR] for this version)

https://doi.org/10.48550/arXiv.2603.00416 Focus to learn more arXiv-issued DOI via DataCite

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