Projects

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.

Core concept

Parameterized PCA as a universal representation of experimental signals

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.

Method layer

A reusable pipeline that stays stable across domains.

Experiments
SAXS, chromatography, cryo-EM, trajectories, fluxes
Signal representation
preprocessing, normalization, aligned observables
PCA modes
low-dimensional modes of variation
Parameterized space
interpretable coordinates linked to physical parameters
Physics / ML models
MD, thermodynamics, flux models, learned predictors
Prediction layer
hypotheses, parameter inference, experiment design

Experimental platforms

Different measurement domains become data sources and validation layers for the same representation.

SAXS + chromatography

Resolve mixture states, generate structural signatures and validate inferred states. Pair-distance distributions, peak deconvolution and time-resolved signals become structured inputs.

Cryo-EM

Structural validation and state classification. Connect inferred modes to real conformational ensembles via density maps and discrete classes.

Molecular dynamics

Continuous trajectories and energy landscapes. Relate PCA coordinates to free-energy surfaces and mechanistic intermediates.

Metabolic modelling

Systems-level extension. Replace structures with flux states and thermodynamic constraints, but keep the same modal representation.

AI / prediction layer

LLM-assisted modelling is treated as an interface layer: it translates experimental descriptions and parameter constraints into model setups, simulation prompts and hypothesis candidates.

Experiment → model suggestion
Parameter inference and uncertainty framing
Automated hypothesis generation and validation loops

Integration layer

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.

Subprojects

Concrete implementations and prototypes around the core concept.

Public

Private / internal

Roadmap, experiments and internal work.