cette.ai

CETTE / Demo

ok_computer2.0

De la matière
à la découverte.

La pluie. La charge. La durée.

A pavement is a system.

How can polymer composition, grid geometry and installation work together to carry loads and manage stormwater?

01 / Inputs

Define the conditions.

  • Polymer blend and manufacturing history
  • Grid geometry, aggregate and pavement layers
  • Rainfall, initial moisture, sediment and drainage
  • Load history, temperature and installation conditions

02 / Model path

Connect the specialists.

  1. CETTE-MIXPROC

    Connect polymer ingredients and proportions to an ordered manufacturing route.

  2. CETTE-MÉSOLIEN

    Connect processing and material structure to effective mechanical and transport parameters.

  3. CETTE-CHAMPOP

    Map geometry, material parameters and boundary conditions to hydraulic and mechanical fields.

03 / Output quantities

Make the question measurable.

  • Ponding, stored water and outflow over time
  • Water balance across the pavement assembly
  • Load response, displacement and permanent deformation
  • Uncertainty for the stated material and operating conditions

04 / Verification

Compare hydraulic predictions with infiltration and drainage measurements, and mechanical predictions with repeated-load tests on the specified pavement assembly.

Les réseaux & les méthodes

18 components.
One scientific engine.

Seventeen neural model families and variants, plus the EMBEDQ quantum workflow. Each has a defined scientific role within version two.

ok_computer2.0 — the complete version-two portfolio
ComponentWhat it does
CETTE-ÉQUIATConservative equivariant atomistic learning

ÉQUIAT learns how the local environments of atoms contribute to the energy of a material.

CETTE-ÉQUIAT-LRAtomistics with explicit long-range interactions

ÉQUIAT-LR extends the atomistic family to problems where interactions beyond a local geometric neighborhood matter.

CETTE-ÉQUIAT-MFMethod-conditioned atomistic predictions

ÉQUIAT-MF connects calculations made under different, explicitly identified scientific methods.

CETTE-INVARInvariant property learning and baseline inference

INVAR retains a direct route from a material representation to a defined property.

CETTE-COMPACTCompression and efficient deployment

COMPACT carries trained scientific capabilities into a smaller deployment model.

CETTE-SYMGÈNEConditional crystal generation

SYMGÈNE explores compositions and periodic structures conditioned on useful properties and permitted chemistry.

CETTE-MIXPROCMixture and processing design

MIXPROC searches the joint space of ingredients, proportions and manufacturing history.

CETTE-SYNTHÉVALCondition-aware synthesis feasibility

SYNTHÉVAL evaluates how a proposed material could be prepared within a real precursor and equipment envelope.

CETTE-MÉSOLIENMicrostructure and scale transfer

MÉSOLIEN connects materials chemistry and preparation history to the microstructures that govern engineering response.

CETTE-CHAMPOPField prediction with neural operators

CHAMPOP learns the map from a physical problem specification to spatial or time-dependent fields.

CETTE-CINÉTAConstrained reaction and process dynamics

CINÉTA combines learned kinetic information with explicit chemical and engineering structure.

CETTE-SUPRACSuperconducting-material screening

SUPRAC organizes superconductivity discovery around composition, structure, phase and measurement conditions.

CETTE-FLUXCIRSuperconducting-circuit design and response models

FLUXCIR connects Coltrane circuit topology, device geometry and fabrication context to superconducting-circuit behavior.

CETTE-SYNDÉCODETemporal quantum-error decoding

SYNDÉCODE uses the history of quantum-error syndromes to infer the information needed for decoding.

CETTE-ÉLECTROFLUXFuel-cell electrochemistry, transport and degradation

ÉLECTROFLUX links fuel-cell materials to operation at the cell scale.

CETTE-ONDEQVariational neural electronic wavefunctions

ONDEQ represents an electronic wavefunction with a neural model and optimizes it through variational Monte Carlo for a specified Hamiltonian.

CETTE-EMBEDQQuantum workflowQuantum embedding and variational eigensolver research

EMBEDQ places a selected electronic subproblem inside an explicit embedding environment.

CETTE-NEUROCIRNeural accelerator and hardware/software co-design

NEUROCIR connects the structure of an AI workload to accelerator architecture, software mapping and physical implementation.

Explore architectures, inputs and outputs