SAXS + chromatography
Resolve mixture states, generate structural signatures and validate inferred states. Pair-distance distributions, peak deconvolution and time-resolved signals become structured inputs.
One core idea, multiple instrument and analysis domains. Calyr.ai is built around a single representation layer that converts experimental signals into a parameter space where physical models and prediction can connect.
Experimental observables are high-dimensional. PCA extracts modes. Parameterization turns modes into interpretable coordinates that can be coupled to physics models, simulations and learning systems.
Goal: map experimental observables → parameter space → predictive models.
A reusable pipeline that stays stable across domains.
Different measurement domains become data sources and validation layers for the same representation.
Resolve mixture states, generate structural signatures and validate inferred states. Pair-distance distributions, peak deconvolution and time-resolved signals become structured inputs.
Structural validation and state classification. Connect inferred modes to real conformational ensembles via density maps and discrete classes.
Continuous trajectories and energy landscapes. Relate PCA coordinates to free-energy surfaces and mechanistic intermediates.
Systems-level extension. Replace structures with flux states and thermodynamic constraints, but keep the same modal representation.
LLM-assisted modelling is treated as an interface layer: it translates experimental descriptions and parameter constraints into model setups, simulation prompts and hypothesis candidates.
The message: the same analytical structure works across domains. A unified representation (PCA coordinates + parameterization) can be applied to scattering signals, chromatographic pulses, trajectories and fluxes.
Concrete implementations and prototypes around the core concept.
Roadmap, experiments and internal work.