Fuse planetary and onsite data.
Hyperspectral imagery, assays, field observations, and experiment outcomes become one shared representation of a physical system.
Coactive Science
Coactive builds foundation models and active-learning workflows that help scientists, operators, and national partners decide what to measure next.
What we build
Physical-world AI has a different bottleneck than internet AI. The valuable data is sparse, expensive, and tied to real operations. Coactive builds the loop that chooses the next measurement and learns from the result.
Hyperspectral imagery, assays, field observations, and experiment outcomes become one shared representation of a physical system.
Active learning guides which satellite tile, field sample, or laboratory experiment should happen next to reduce uncertainty fastest.
Recommendations are built for scientists and operators working in mines, labs, coastlines, and other physical environments.
The thesis
There is no Common Crawl for atoms. Satellite time, field sampling, wet-lab chemistry, and drilling assays all cost money and time. The hard problem is deciding which next measurement creates the most learning.
Coactive builds the model and the decision loop together: sense, score, sample, test, update, and deploy.
Critical minerals
Coactive combines hyperspectral imagery, geological context, legacy assays, and active-learning field plans to prioritize critical-mineral sites across the western United States.
Orbit to onsite
A permitted Colorado mine partnership turns the AI story into an operating story: satellite screening, drone context, field sampling, assay results, and updated site priors in one feedback loop.
Request the minerals briefSpectral substrate
Hyperspectral imagery gives Coactive a richer signal than RGB imagery alone: mineral signatures, vegetation stress, surface disturbance, and environmental context in a single sensing layer.
AI for science
Coactive works where every experiment matters. Active learning selects the next chemistry, biology, or characterization experiment and turns each result into a better model.
Agentic workflows for critical-materials recovery and separations chemistry.
Residual learning over biological datasets to predict metal-ion recovery.
Sampling pipelines for in-situ characterization of permitted sites.
Applications
Critical minerals is the first operating wedge. The same active-learning primitive applies wherever measurement is expensive and decisions compound.
Early warning and operational intelligence for coastal chemistry and biological risk.
Experiment selection for domains where every measurement is expensive and decisions compound.
Join the mission
We are assembling a small team across machine learning, geospatial data, experimental science, and field operations. The work is technical, urgent, and tied to real-world outcomes.
Strategic partnerships
Or email us directly at info@coactive.science