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QOARC_OS v2.4.0Signal: Stabilized
QOARC Engineering
Active Research Unit // Environmental

PFAS Rigidity
Modeling.

Applying Hybrid GNN architectures to predict the structural rigidity and environmental persistence of Per- and Polyfluoroalkyl Substances in industrial water cycles.

Discovery Funnel Convergence
5.2M
Candidates Analyzed
14
Unicorn Leads
98.5%
Model Precision

The Incentive

Predicting degradation
before synthesis.

Industrial water treatment systems are reactive. Our model allows manufacturers to predict the 100-year environmental persistence of a chemical surfactant before it even leaves the simulation environment.

Industrial Water Cycles
Molecular Rigidity

The Methodology

Hybrid GNN Architecture.

Combining Graph Convolutional Networks (GCN) with RDKit molecular descriptors to map toxicity across 1.2M known compounds. Transfer learning from ChEMBL ensures zero-shot prediction on fluorinated chains.

PyTorchNeo4j

Data Pipeline

Automated ingestion of Tox21 & ToxCast datasets with structural validation via RDKit.

Edge Compute

Model optimized for inference at the water filtration system using Nvidia Jetson.

Environmental Impact

Predicting half-life degradation across 4 major industrial effluent types.

Research Outcomes

Derived
Discovery.

14 Bio-degradable Surfactant leads identified.

60% faster environmental half-life predicted.

Acquisition Point

This research module is available for exclusive commercial licensing or integration into proprietary R&D pipelines.

Request Methodology Whitepaper