Chemical Engineering

Paramus Polymer brings computational chemistry, ML models, and domain ontologies together to accelerate polymer development with chemically verified workflows rather than generic AI output.

Enter copilot, openAI and Claude for polymer scientists: real structure handling, validated reaction chemistry, and predictive models spanning kinetics, rheology, and thermo-mechanical behavior.

The best of both worlds: large-language-model capability fused with chemical exactness for real polymer design and validated structure–property prediction.

Included

The chemical engineering package from Paramus contains:

What is included in the Paramus chemical engineering package?

5 process simulators (OpenModelica, DWSIM, Reaktoro, BoFire, RMG), 7 CFD/MD engines (OpenFOAM, Code_Saturne, OpenQBMM, LAMMPS, GROMACS, xTB, ASE), 7 datasets (COD, QM9, QM9S, MSR-ACC/TAE25, echemdb CVs, RedDB, CALiSol-23) and 3 workflow apps (PathSim, process-improve DOE, Reactor Timeseries) – all local under PARAMUS OS.

Can I run flowsheeting and design of experiments?

Yes. PathSim runs block-diagram process simulations, process-improve DOE plans and analyzes experimental designs, and DWSIM/BoFire cover steady-state flowsheeting and Bayesian optimization.

Does the chemical engineering package need a cluster or cloud?

No. All simulators, CFD engines and datasets run locally on CPU under PARAMUS OS. No cloud account – your process data stays on your machine.

Which electrochemistry and electrolyte data ships with the package?

echemdb CVs (cyclic voltammetry with metadata), RedDB (redox potentials and reaction energies) and CALiSol-23 (electrolyte conductivity and transport properties), all queryable as deterministic tools.

How do I call the engineering tools from my AI assistant?

Through the Model Context Protocol (MCP). Claude Desktop, VS Code or Cursor call the tools directly: flowsheeting, CFD case setup, DoE analysis, dataset lookups.

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