Design, monitor, and predict microgravity experiments — from simulation to in-flight analytics to post-flight modeling.
NASA Government
NSF Government
Space Foundation Not For Profit
Above Space Flight Provider
LambdaVision Space Manufacturing
United Semiconductors Space Manufacturing
Le Verre Fluore Terrestrial Company
The Bond Fund Investor
Blue Startups Investor
Seraphim Capital Investor Flight opportunities are limited, expensive, and data-rich. The challenge is turning every experiment into clear decisions, stronger models, and more reproducible results.
G-SPACE connects simulation, in-flight analytics, and post-flight modeling so every run improves the next one.
Model experiment conditions and identify the most informative configurations before flight.
Convert imagery, sensor streams, and experiment outputs into quantitative signals as runs unfold.
Use flight data to refine models, explain outcomes, and guide the next experiment.
G-SPACE connects experiment design, data analysis, and predictive modeling in one workflow. Teams turn terrestrial baselines, flight data, imagery, sensors, and materials characterization into usable insight.
Workflows for designing experiments, interpreting flight data, and scaling reproducible processes.
Design and model protein crystallization and biological systems across gravity conditions.
Characterize material behavior as gravity-driven effects change, then improve future runs.
Analyze crystal growth, defect formation, and process behavior for more predictable workflows.
Turn raw experiment outputs into standardized analysis and stronger future hypotheses.
G-SPACE is not just analytics or simulation. It is the data and modeling layer that connects design, flight, analysis, and the next run.
Move from raw outputs to clearer hypotheses, better parameters, and stronger future experiments.
Connect pre-flight planning, in-flight monitoring, and post-flight modeling in one learning system.
Build predictions from real microgravity data, mission constraints, and observed behavior.
Plan better experiments. Understand flight behavior faster. Build models that make each run more valuable.