Enhancing Retrosynthesis Prediction with Distillation Learning

Single-step retrosynthesis prediction aims to identify reactants for synthesizing a target molecule and is crucial for pathway planning. Despite improved prediction accuracy, existing methods often struggle with performance disparities between high- and low-resource reaction classes. This limitation hampers the overall effectiveness of the retrosynthesis prediction methods. Here, we introduce two novel strategies─Retrosynthetic Mutual Distillation (Retro-MD) and Retrosynthetic Self-Distillation (Retro-SD)─leveraging distillation learning techniques to bridge this performance gap. Retro-MD uses dual sampling temperatures and cross-model knowledge transfer, while Retro-SD leverages a fixed temperature and self-distillation from prior iterations. Evaluations on Transformer-based models show a state-of-the-art performance among template-free approaches. Ablation studies further validate the rationale of reaction-class-aware task partitioning, demonstrating the robust effectiveness of our proposed distillation strategies.

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Publication Details

Journal
Journal of Chemical Information and Modeling
Published
2026-03-16
DOI
https://doi.org/10.1021/acs.jcim.6c00322
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
0.00
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article

Enhancing Retrosynthesis Prediction with Distillation Learning

Ying Han, Li Wei, Yujie Chen, Jiayi Zhang et al.
Journal of Chemical Information and Modeling
Machine Learning in Materials Science
article

Enhancing Retrosynthesis Prediction with Distillation Learning

Ying Han, Li Wei, Yujie Chen, Jiayi Zhang, Yiping Liu, Zhou Yu, Xiangxiang Zeng, Yuansheng Liu, Shu Wu
article en

Abstract

Single-step retrosynthesis prediction aims to identify reactants for synthesizing a target molecule and is crucial for pathway planning. Despite improved prediction accuracy, existing methods often struggle with performance disparities between high- and low-resource reaction classes. This limitation hampers the overall effectiveness of the retrosynthesis prediction methods. Here, we introduce two novel strategies─Retrosynthetic Mutual Distillation (Retro-MD) and Retrosynthetic Self-Distillation (Retro-SD)─leveraging distillation learning techniques to bridge this performance gap. Retro-MD uses dual sampling temperatures and cross-model knowledge transfer, while Retro-SD leverages a fixed temperature and self-distillation from prior iterations. Evaluations on Transformer-based models show a state-of-the-art performance among template-free approaches. Ablation studies further validate the rationale of reaction-class-aware task partitioning, demonstrating the robust effectiveness of our proposed distillation strategies.

Journal of Chemical Information and Modeling
Shandong University (CN), Hunan University (CN), Liaocheng University (CN), Chinese Academy of Sciences (CN), Center for Innovation (US), Artificial Intelligence in Medicine (Canada) (CA)
Openalex Percentile: Top 21%
Machine Learning in Materials Science
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