PMO-Dock: Benchmarking Docking, Specificity, and Generalization in Molecular Optimization
To address this, we introduce Practical Molecular Optimization for Docking (PMO-Dock), a benchmark and protocol for docking-based optimization consisting of 25 tasks covering hit generation, lead optimization, and a new specificity task requiring strong on-target binding while penalizing off-target interactions.
ProofPaper ↗
Key points
- The Practical Molecular Optimization (PMO) benchmark standardized evaluation in molecular optimization, but it is built on simple property-based oracles that do not capture structure-based drug design.
- As the field has moved to docking-based objectives, evaluation practice has become unstandardized, and different methods report results on different docking tasks, often without a shared protocol for fair comparison or sample-efficiency constraints.
- We benchmark four diverse high-performing methods spanning different optimization paradigms, Saturn (reinforcement learning), GenMol (discrete diffusion), Genetic-guided GFlowNet, and ChemLlama (LLM-based evolutionary search).
- Our results show no universally best method across tasks, additional analyses of hyperparameter transfer (cross-task and cross-category) and sensitivity show that transfer is often limited and varies by method, motivating method-dependent selection strategies.
Sources (1)
- [1]PMO-Dock: Benchmarking Docking, Specificity, and Generalization in Molecular OptimizationarXiv (AI, ML, NLP, CV, robotics, multi-agent) · Oct 13, 06:07 PM
To address this, we introduce Practical Molecular Optimization for Docking (PMO-Dock), a benchmark and protocol for docking-based optimization consisting of 25 tasks covering hit generation, lead optimization, and a new specificity task requiring strong on-target binding while penalizing off-target interactions.
The Practical Molecular Optimization (PMO) benchmark standardized evaluation in molecular optimization, but it is built on simple property-based oracles that do not capture structure-based drug design.
Extractive summary: sentences quoted from the sources.
Before this
- Oct 13, 2026Discovering Undisclosed Concepts in LoRA Adapters for Diffusion-Based AIGC Models
- Oct 13, 2026Run fast, private agents on-device with LFM2.5-24B-A2B
- Oct 13, 2026Risk-Averse Inference-Time Diffusion Model Alignment with Finite-Sample Guarantees
- Oct 13, 2026Hybrid Reasoning Agents
- Oct 12, 2026WeGR: Unified Generative Retrieval for Industrial Search Systems in WeChat
- Oct 12, 2026A Survey of Flow Matching in Reinforcement Learning