rowan
Rowan is a cloud-native molecular modeling and medicinal-chemistry workflow platform with a Python API. Use for pKa and macropKa prediction, conformer and tautomer ensembles, docking and analogue docking, protein-ligand cofolding, MSA generation, molecular dynamics, permeability, descriptor workflows, and related small-molecule or protein modeling tasks. Ideal for programmatic batch screening, multi-step chemistry pipelines, and workflows that would otherwise require maintaining local HPC/GPU infrastructure.
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Rowan - Cloud-Native Molecular Modeling and Drug Discovery Platform
Overview of Capabilities
Rowan is a cloud-native molecular modeling platform for medicinal chemists and computational chemistry researchers. Through a Python API, it provides end-to-end drug discovery workflows including pKa prediction, molecular docking, conformational search, protein–ligand co-folding, and molecular dynamics simulations.
Use Cases
1. Lead Optimization and Screening
When you need systematic optimization of lead compounds, Rowan offers a complete drug design toolchain. You can run a multi-step workflow of conformational search → molecular docking → pose analysis, handling tens to hundreds of similar compound series—without having to maintain an on-premises GPU cluster or install multiple standalone software packages. All computations run in the cloud, results are stored persistently, and it supports batch screening and SAR analysis.
2. Batch Drug Property Prediction
For scenarios requiring large-scale ADMET assessment, Rowan supports batch job submission workflows. You can compute properties for hundreds of compounds at once—such as descriptors, pKa, permeability, and solubility—with all tasks executed in parallel and results centrally managed. Free users receive 20 credits per week, which is enough for small-scale screening and testing.
3. Molecular Simulations Without Local Infrastructure
When your lab lacks HPC or GPU resources, Rowan lets you run compute-intensive tasks such as quantum chemistry, molecular dynamics, and AI-based structure prediction using a simple Python API. The platform automatically handles infrastructure setup, job scheduling, and result storage, so you can focus on the scientific questions.
Core Features
1. Small-Molecule Modeling and Property Prediction
Rowan provides a comprehensive small-molecule modeling toolkit, including:
2. Structure-Based Drug Design
Structure-based drug design workflows:
3. Batch Workflows and Automation
Rowan is designed for programmatic batch processing:
Frequently Asked Questions
What is the Rowan Molecular Modeling Platform?
Rowan is a cloud-native computational chemistry and drug discovery platform that provides a unified molecular modeling interface via a Python API. Unlike traditional software that requires local installation and maintenance (e.g., Schrodinger, AutoDock), Rowan runs all computations in the cloud. With just an API key, you can run complete workflows from descriptor calculation to molecular dynamics. The platform uses a credit-based system: free users get 20 credits per week, and paid users can purchase credits as needed.
How do I get started with Rowan for drug screening?
First install the Python client:
uv pip install rowan-python. Then set your API key (environment variable ROWAN_API_KEY or rowan.api_key = "..." in code). The simplest way to start is to submit a descriptor workflow to test the connection, and then select specific workflows as needed (docking, pKa, conformational search, etc.). For large-scale screening, create projects and folders to organize workflows. After batch submission, collect results using result() or stream_result().What molecular modeling workflows does Rowan support?
Rowan supports 20+ workflows covering the full drug discovery lifecycle: core modeling (descriptors, pKa, MacropKa, conformational search, tautomer search), structure-based design (docking, analog docking, co-folding, MD pose refinement), advanced computational chemistry (quantum chemistry, electronic properties, BDE, redox potential, spin states), reaction chemistry (transition state search, IRC), binding free energies (FEP/perturbation), and sequence analysis (MSA). All workflows follow a unified “submit → wait → retrieve” pattern, and support webhooks and project organization.