Risk assessment of chemicals
Generate robust physicochemical properties to fill data gaps in your REACH evaluations. We provide the pure, high-fidelity calculation data you need to build your compliance reports.
Empowering Your Compliance Workflows
Our package calculates the critical physicochemical and effect-based endpoints required by regulatory bodies.
- Data You Can Trust: Get highly accurate predictions to support your chemical safety assessments.
- Intuitive & Flexible Input: Start calculations instantly using standard SMILES strings. Our intuitive interface means you do not need to struggle with rigid, pre-formatted CSV templates to initiate your work.
- Multiple Methodologies: Cross-validate results using different computational methods to ensure the highest reliability.
- Batch Processing & Seamless Export: Run single predictions or large-scale batch calculations effortlessly. Extract your results as clean CSV files to easily format the raw data for your specific regulatory submission templates.
Advanced Modeling for Risk Assessment
Choose from a comprehensive suite of models to predict a broad spectrum of properties - including the octanol-water partition coefficient (log P), water solubility (log Sw), and the bioconcentration factor (log BCF), among many others. We allow you to compare results across the following methodologies:
- Deep Neural Networks: Our highest-performing models, engineered to deliver exceptional accuracy across the entire chemical space - from basic everyday compounds to the most complex chemical structures.
- Group Contribution Methods: Transparent and established baseline models.
- k-Nearest Neighbors (k-NN): Fast and reliable estimations based on structural similarity.
Peer-Review Validated
We don’t just calculate; we validate. Our predictive models have been benchmarked against leading industry tools and published in peer-reviewed scientific journals.
Publications
- "Prediction of the water solubility by a graph convolutional-based neural network on a highly curated dataset.", J. Cheminformatics, 2025. https://doi.org/10.1186/s13321-025-01000-9
- "Prediction of melting points of chemicals with a data augmentation-based neural network approach.", ACS Omega, 2025. https://doi.org/10.1021/acsomega.5c00205
- "Prediction of solute descriptors for linear solvation energy relationships using k-nearest neighbours, group contributions, and graph-convolutional neural networks", ACS Environ. Au, 2026. https://doi.org/10.1021/acsenvironau.6c00063
Models in the Package
Octanol-Water Partition Coefficient log Kow
GNNWater solubility log Sw
GNNBioconcentration factor log BCF
GNNOctanol-water partition coefficient log Kow
GCAWater solubility log Sw
GCABioconcentration factor log BCF
GNNOctanol-Water Partition Coefficient log Kow
kNNAcute Fish Toxicity log LC50
GNNBioconcentration factor log BCF
GCAAcute toxicity Daphnia Magna log LC50
GNNAir-Water Partition Coefficient log Kaw
GNNAcute toxicity fish log LC50
GCAOctanol-Air Partition Coefficient log Koa
GNNOC-Water Partition Coefficient log Koc
GNNMelting Point MP
GNNBoiling point
GNNMelting Point MP
kNNOC-Water Partition Coefficient log Koc
kNNOctanol-Air Partition Coefficient log Koa
kNNAir-Water Partition Coefficient log Kaw
kNNBioconcentration Factor log BCF
kNNWater Solubility log Sw
kNNBoiling Point BP
kNNAcute Toxicity Daphnia Magna log LC50
kNNAcute Fish Toxicity log LC50
kNNAlgae Growth Inhibition log EC50
kNNAlgae Growth Inhibition log EC50
GNN