Timezone: »
Retrosynthetic planning aims to devise a complete multi-step synthetic route from starting materials to a target molecule. Current strategies use a decoupled approach of single-step retrosynthesis models and search algorithms, taking only the product as the input to predict the reactants for each planning step and ignoring valuable context information along the synthetic route. In this work, we propose a novel framework that utilizes context information for improved retrosynthetic planning. We view synthetic routes as reaction graphs and propose to incorporate context through three principled steps: encode molecules into embeddings, aggregate information over routes, and readout to predict reactants. Our approach is the first attempt to utilize in-context learning for retrosynthesis prediction in retrosynthetic planning. The entire framework can be efficiently optimized in an end-to-end fashion and produce more practical and accurate predictions. Comprehensive experiments demonstrate that by fusing in the context information over routes, our model significantly improves the performance of retrosynthetic planning over baselines that are not context-aware, especially for long synthetic routes. Code is available at https://github.com/SongtaoLiu0823/FusionRetro.
Author Information
Songtao Liu (Penn State)
Zhengkai Tu (Massachusetts Institute of Technology)
Minkai Xu (Stanford University)
Zuobai Zhang (Mila)
Lu Lin (Pennsylvania State University)
ZHITAO YING (Yale University)
Jian Tang (Mila)
Peilin Zhao (Artificial Intelligence Department, Ant Financial)
Dinghao Wu (Pennsylvania State University)
More from the Same Authors
-
2022 : Evaluating Self-Supervised Learned Molecular Graphs »
Hanchen Wang · Shengchao Liu · Jean Kaddour · Qi Liu · Jian Tang · Matt Kusner · Joan Lasenby -
2022 : GAUCHE: A Library for Gaussian Processes in Chemistry »
Ryan-Rhys Griffiths · Leo Klarner · Henry Moss · Aditya Ravuri · Sang Truong · Yuanqi Du · Arian Jamasb · Julius Schwartz · Austin Tripp · Bojana Ranković · Philippe Schwaller · Gregory Kell · Anthony Bourached · Alexander Chan · Jacob Moss · Chengzhi Guo · Alpha Lee · Jian Tang -
2022 : Enhancing Multi-hop Connectivity for Graph Convolutional Networks »
Songtao Liu · Shixiong Jing · Tong Zhao · Zengfeng Huang · Dinghao Wu -
2022 : Flaky Performances when Pre-Training on Relational Databases with a Plan for Future Characterization Efforts »
Shengchao Liu · David Vazquez · Jian Tang · Pierre-André Noël -
2022 : Protein Representation Learning by Geometric Structure Pretraining »
Zuobai Zhang · Zuobai Zhang · Minghao Xu · Minghao Xu · Arian Jamasb · Arian Jamasb · Vijil Chenthamarakshan · Vijil Chenthamarakshan · Aurelie Lozano · Payel Das · Payel Das · Jian Tang · Jian Tang -
2022 : Evaluating Self-Supervised Learned Molecular Graphs »
Hanchen Wang · Hanchen Wang · Shengchao Liu · Shengchao Liu · Jean Kaddour · Jean Kaddour · Qi Liu · Qi Liu · Jian Tang · Jian Tang · Matt Kusner · Matt Kusner · Joan Lasenby · Joan Lasenby -
2023 : Unsupervised Discovery of Steerable Factors in Graphsc »
Shengchao Liu · Chengpeng Wang · Weili Nie · Hanchen Wang · Jiarui Lu · Bolei Zhou · Jian Tang -
2023 : Score-based Enhanced Sampling for Protein Molecular Dynamics »
Jiarui Lu · Bozitao Zhong · Jian Tang -
2023 : Evolving Computation Graphs »
Andreea Deac · Jian Tang -
2023 Oral: ProtST: Multi-Modality Learning of Protein Sequences and Biomedical Texts »
Minghao Xu · Xinyu Yuan · Santiago Miret · Jian Tang -
2023 Poster: Coarse-to-Fine: a Hierarchical Diffusion Model for Molecule Generation in 3D »
Bo Qiang · Yuxuan Song · Minkai Xu · Jingjing Gong · Bowen Gao · Hao Zhou · Wei-Ying Ma · Yanyan Lan -
2023 Poster: Geometric Latent Diffusion Models for 3D Molecule Generation »
Minkai Xu · Alexander Powers · Ron Dror · Stefano Ermon · Jure Leskovec -
2023 Poster: A Group Symmetric Stochastic Differential Equation Model for Molecule Multi-modal Pretraining »
Shengchao Liu · weitao du · Zhiming Ma · Hongyu Guo · Jian Tang -
2023 Poster: Graph Contrastive Backdoor Attacks »
Hangfan Zhang · Jinghui Chen · Lu Lin · Jinyuan Jia · Dinghao Wu -
2023 Poster: Hyperbolic Representation Learning: Revisiting and Advancing »
Menglin Yang · Min Zhou · ZHITAO YING · yankai Chen · Irwin King -
2023 Poster: ProtST: Multi-Modality Learning of Protein Sequences and Biomedical Texts »
Minghao Xu · Xinyu Yuan · Santiago Miret · Jian Tang -
2022 Workshop: The First Workshop on Pre-training: Perspectives, Pitfalls, and Paths Forward »
Huaxiu Yao · Hugo Larochelle · Percy Liang · Colin Raffel · Jian Tang · Ying WEI · Saining Xie · Eric Xing · Chelsea Finn -
2022 Poster: Generative Coarse-Graining of Molecular Conformations »
Wujie Wang · Minkai Xu · Chen Cai · Benjamin Kurt Miller · Tess Smidt · Yusu Wang · Jian Tang · Rafael Gomez-Bombarelli -
2022 Poster: Local Augmentation for Graph Neural Networks »
Songtao Liu · Rex (Zhitao) Ying · Hanze Dong · Lanqing Li · Tingyang Xu · Yu Rong · Peilin Zhao · Junzhou Huang · Dinghao Wu -
2022 Poster: Communication-Efficient Adaptive Federated Learning »
Yujia Wang · Lu Lin · Jinghui Chen -
2022 Spotlight: Generative Coarse-Graining of Molecular Conformations »
Wujie Wang · Minkai Xu · Chen Cai · Benjamin Kurt Miller · Tess Smidt · Yusu Wang · Jian Tang · Rafael Gomez-Bombarelli -
2022 Spotlight: Communication-Efficient Adaptive Federated Learning »
Yujia Wang · Lu Lin · Jinghui Chen -
2022 Spotlight: Local Augmentation for Graph Neural Networks »
Songtao Liu · Rex (Zhitao) Ying · Hanze Dong · Lanqing Li · Tingyang Xu · Yu Rong · Peilin Zhao · Junzhou Huang · Dinghao Wu -
2022 Poster: Neural-Symbolic Models for Logical Queries on Knowledge Graphs »
Zhaocheng Zhu · Mikhail Galkin · Zuobai Zhang · Jian Tang -
2022 Spotlight: Neural-Symbolic Models for Logical Queries on Knowledge Graphs »
Zhaocheng Zhu · Mikhail Galkin · Zuobai Zhang · Jian Tang -
2020 Poster: Breaking the Curse of Space Explosion: Towards Efficient NAS with Curriculum Search »
Yong Guo · Yaofo Chen · Yin Zheng · Peilin Zhao · Jian Chen · Junzhou Huang · Mingkui Tan -
2018 Poster: Towards More Efficient Stochastic Decentralized Learning: Faster Convergence and Sparse Communication »
Zebang Shen · Aryan Mokhtari · Tengfei Zhou · Peilin Zhao · Hui Qian -
2018 Oral: Towards More Efficient Stochastic Decentralized Learning: Faster Convergence and Sparse Communication »
Zebang Shen · Aryan Mokhtari · Tengfei Zhou · Peilin Zhao · Hui Qian -
2017 Poster: Projection-free Distributed Online Learning in Networks »
Wenpeng Zhang · Peilin Zhao · Wenwu Zhu · Steven Hoi · Tong Zhang -
2017 Talk: Projection-free Distributed Online Learning in Networks »
Wenpeng Zhang · Peilin Zhao · Wenwu Zhu · Steven Hoi · Tong Zhang