GeminiMol: Conformational Space Profiling for Molecular Representation
A molecular representation method that enhances ligand-based drug discovery by profiling conformational space.
Authors
Lin Wang, Shihang Wang, Hao Yang, Shiwei Li, Xinyu Wang, Yongqi Zhou, Siyuan Tian, Lu Liu, Fang Bai
Advanced Science, 2024 | Volume 11, Issue 40, 2403998
Abstract
GeminiMol enhances generic molecular representation for AI-powered ligand-based drug discovery by profiling the conformational space of molecules. Instead of relying on single static molecular structures, GeminiMol systematically explores and encodes the three-dimensional conformational diversity of molecules, capturing the dynamic nature of molecular flexibility that is critical for biological activity.
Method
GeminiMol introduces a novel approach to molecular representation:
- Conformational Space Profiling: Systematically generates and encodes multiple 3D conformations of each molecule
- Multi-Conformer Encoding: Uses deep learning to aggregate information from diverse conformations into a single comprehensive representation
- Similarity Learning: Trains the model to capture molecular similarities that are relevant to biological activity through contrastive learning
- Generic Representation: The learned representation transfers effectively across different downstream tasks
Key Results
- State-of-the-Art Performance: Achieves top results on multiple molecular property prediction benchmarks
- Ligand-Based Drug Discovery: Significantly improves virtual screening performance for various drug targets
- Conformational Sensitivity: Captures activity-relevant conformational information that static representations miss
- Broad Applicability: Effective across diverse chemical spaces and drug discovery tasks
BibTeX
@article{wang2024conformational,
title={Conformational Space Profiling Enhances Generic Molecular Representation for AI-Powered Ligand-Based Drug Discovery},
author={Wang, Lin and Wang, Shihang and Yang, Hao and Li, Shiwei and Wang, Xinyu and Zhou, Yongqi and Tian, Siyuan and Liu, Lu and Bai, Fang},
journal={Advanced Science},
volume={11},
number={40},
pages={2403998},
year={2024},
publisher={Wiley Online Library}
}