Core
A common foundation for physical models, data and evidence. Geometry, parameters, provenance, assumptions and validity limits remain connected to each result.
calyr / CODE-BASED MODELS · SCIENTIFIC AI
calyr turns expensive physical models into fast, bounded decision tools. Surrogates compare alternatives; targeted simulations and experiments resolve uncertainty; assumptions, evidence and validity limits stay attached to every result.
Explore the platform01 / THE PLATFORM
calyr Core, Engine and Model Capsules form one modelling architecture. Applications reuse that foundation while keeping their own physics, evidence and validation gates.
The aim is practical scientific inference: compare more alternatives, quantify what remains uncertain and choose the next simulation or experiment for information rather than habit.
A common foundation for physical models, data and evidence. Geometry, parameters, provenance, assumptions and validity limits remain connected to each result.
Coordinates reference models, surrogate prediction, comparison and optimisation. Surrogates accelerate expensive calculations; the decision layer selects the next informative simulation or experiment.
Reusable domain-specific model packages with explicit inputs, outputs, assumptions and evidence requirements. Each capsule is valid only for its declared use and tested domain.
Development status: a research and software platform under construction. Predictive performance and validation must be established separately for each model and use case.
02 / THE METHOD
A prediction becomes decision-relevant only when its assumptions, uncertainty, applicability and independent evidence are visible.
Specify the decision, available evidence and constraints. Define what result would actually change the next action.
Use physical models and calibrated surrogates to explore a bounded design or parameter space. Report uncertainty, applicability and out-of-domain cases.
Select the simulation or experiment that can discriminate between plausible explanations or reduce the decision-critical uncertainty. Verify predictions against independent evidence.
03 / APPLICATIONS
Research domains and application tracks test the same modelling principles at different physical scales and levels of maturity.
An exploratory calyr track for path-resolved transport and purification design. The planned implementation uses differentiable computation to compare trajectories and operating conditions; LNP / mRNA is the first use case, with experimental validation still pending.
calyr develops scientific models, calibrated surrogates and inference. LITHÍOS applies that foundation to physical products, prototypes and design decisions.