Lavoisier Labs

Technology stack

Every layer chemists need — from open components to plant agents.

Formula components from open-source chemistry data, ML/DL models we train, LLM evaluation, regulation RAG, workflow simulation & digital twins, and Chemical Engineering Agents — a growing fleet for chemistry.

prediction = first-principles baseline + ML residual ± uncertainty

Open components9 sources
ML / DL + LLMtrain · eval
Twin · agentsHITL
Full chemistry stackinspectable

The full technology map

One inspectable stack. Each layer is purpose-built for chemistry — not a generic LLM wrapper.

  1. 01

    Formula components · open-source data

    Component-level properties and structures from multiple open chemistry databases — QM9, Materials Project, OQMD, AFLOW, NOMAD, PoLyInfo, Polymer Genome, PubChem, ZINC — normalised onto a CAS-keyed backbone for FormulaIQ Layer 1.

  2. 02

    ML / DL models

    In-house machine learning and deep learning: molecular descriptors & GNNs, mixture models, physics-informed residuals, inverse search (Bayesian / multi-objective). Trained by Lavoisier — not rented property APIs.

  3. 03

    LLM evaluation

    Chemistry LLMs are evaluated on formulation, process, and regulation tasks before they orchestrate agents — grounded answers, cited sources, and failure modes measured — not vibes.

  4. 04

    RAG for regulations

    Local LLM + RAG over REACH, RoHS, market rules, and customer policy docs. Compliance answers cite clauses; inference can stay private.

  5. 05

    Workflow · simulation · digital twin

    Studio Pro workflow tools: full-metric process simulation, thermodynamic packages (Ideal, NRTL, Peng-Robinson, UNIQUAC), Monte Carlo risk, Bayesian optimization, and digital twin profiles ready for scale-up.

  6. 06

    Chemical Engineering Agents

    The same twin moves into operations. Agents keep plants on-spec under chemistry constraints, incomplete data, and quantified uncertainty — with humans in the loop, and more agent roles ahead.

  7. 07

    Growing agent fleet

    A fleet of chemistry AI agents — plant ops today; formulation, regulation, simulation, and scale-up roles expanding on one backbone.

From open components to models you can trust.

FormulaIQ starts with real components drawn from open-source chemistry corpora, then runs ML/DL forward models and inverse search so recipes stay physically plausible. LLM evaluation gates what agents are allowed to say; regulation RAG constrains what they are allowed to recommend.

See how FormulaIQ uses this stack.

Explore FormulaIQ

Hybrid prediction

First-principles baseline plus ML residual — confidence and out-of-domain flags on every answer.

Physics + ML control
Confidence80
Mixture level+ High
Uncertainty

Data flywheel

Validated experiments

25→200

Simulation, digital twins — and Chemical Engineering Agents.

Studio Pro runs the workflow: simulate the process, extract a digital twin profile, then hand the same twin to Chemical Engineering Agents — plant ops today, a growing fleet tomorrow.

Formula confidence

+7.8%

80.5%

Twin stability

+4.5%

94%

Model readiness

72

Eval score

LLM evaluation72%

Chemical Engineering Agents

  • Plant operations agents
  • Formulation advisor agent
  • Regulation agent
  • Simulation agent
  • Scale-up agent

Diligence detail by layer

Open components, ML/DL + LLM evaluation, digital twin workflows, and chemistry agents — the stack investors and PhDs both ask about.

Components from open-source chemistry

FormulaIQ Layer 1 is fed by a multi-source open materials ETL — not a single vendor dump. Components stay CAS-keyed into inverse formulation.

Formula · open data

Open chemistry sources

FormulaIQ components
Formula · open data

9

Open chemistry sources

Questions

Where do FormulaIQ components come from?
Component-level properties and structures are built from multiple open chemistry databases — including QM9, Materials Project, OQMD, AFLOW, NOMAD, PoLyInfo, Polymer Genome, PubChem, and ZINC — normalised onto a CAS-keyed backbone. Customer formulation data never trains shared models without a written agreement.
How do ML/DL models, LLM evaluation, and RAG fit together?
Lavoisier trains ML/DL property and mixture models in-house. Chemistry LLMs are evaluated on formulation, process, and compliance tasks before they orchestrate agents. Regulation answers use a local RAG pipeline over REACH, market rules, and customer policy — with cited clauses.
What about digital twins and Chemical Engineering Agents?
Studio Pro runs workflow simulation and digital twin profiles with real thermodynamic packages. Chemical Engineering Agents — plant control today, a growing fleet tomorrow — use evaluated LLMs with human-in-the-loop for safety-critical acts.

Walk the full stack on your chemistry.

Open components, ML/DL, LLM evaluation, RAG, digital twins, process control, and chemistry agents — in one technical session.