Briefs become structured programmes.
Intent, constraints and review criteria enter the system as typed inputs.
Governed scientific design
Zentari turns a scientific brief into validated, partner-ready designs: candidate geometries, carrier manifests and material-function proof packs scored by real physics, screened by fast surrogate models, and promoted through explicit approval gates. Results carry their provenance.
How it works
The same evidence backbone runs the product family. Stages produce typed, lineage-aware artefacts; a reviewer can trace a decision back to the underlying physics.
Intent, constraints and review criteria enter as a structured programme of typed inputs.
Structured programmeCandidate geometries, carrier manifests and material records are generated lineage-aware from the first revision.
Design thread · manifestReal solvers (OpenFOAM CFD, Brownian and Stokesian dynamics) produce actual fields and mobility evidence.
Solver fieldsFast models with calibrated uncertainty rank candidates and focus expensive truth runs where they matter.
Ranked frontierMulti-objective scoring and explicit approval gates govern expensive compute and promotions.
Scorecard · audit recordA partner-ready evidence pack ships with provenance attached; claims trace to their runs.
Evidence packProduct family
The products organise briefs, candidate designs, physics evidence, scorecards, approvals and handoff packs under durable contracts; governance and provenance hold across distinct workloads.
Scaffold-agnostic structure design
A design operating layer: geometry templates, process constraints, partner evidence, topology and flow constraints, resolved into partner-ready validation packs with real CFD behind transport and handling claims.
Nano carriers and molecular devices
A carrier compiler and optimisation system: molecular candidate manifests, Brownian and Stokesian dynamics, OpenFOAM mobility evidence, and validation-gated learning loops, which adopt a change once it beats the baseline on real data.
Material-function engine
A rights-gated material-function optimiser for proteins, peptides, small molecules, motifs and coatings, pairing biological priors with classical baselines, quantum task planning and assay-ready proof packs.
Under the hood
The capabilities keep results reproducible, governed and cheaper to validate than to guess.
OpenFOAM runs on the best evolved candidate; shear and velocity come straight from a solver.
Gradient-boosting and Gaussian-process surrogates with calibrated uncertainty screen candidates ahead of truth runs.
Candidates are explored against competing objectives, and the search surfaces the Pareto frontier.
A compute governor stands between intent and expensive work; truth runs and promotions pass through its gate.
Geometry, manifests, solver outputs and scorecards retain provenance; claims trace back to their runs.
Review surfaces are built for someone else to trust: evidence assembled, gated and exported as a package.
Operating doctrine
Intent, constraints and review criteria enter the system as typed inputs.
Geometry, manifests, scorecards and solver outputs retain provenance.
Truth runs and learning loops pass through explicit gates and audit records.
Contact
Working on structured foods, carriers, material functions or validation-heavy design? Tell us about your programme and we will walk you through the evidence backbone in detail.
founders@zentari.bio Scaffold Intelligence · Nano · Quantum Materials · shared evidence