top of page

Average cost of sending a single experiment to the International Space Station

$2.5M

Time investment from proposal to execution with no room for iteration or error 

1 - 3 Years

Identical experiment with Altered Gravity

$5k

Space Research is Expensive

Biomimetic Engineered Space Technology

​Turn gravity into a programmable research variable.

Developed for ground-based altered-gravity research, the platform helps scientists investigate how changes in gravity affect biological and material systems. Researchers can simulate microgravity or selected partial-gravity conditions within an incubator-compatible environment, making it possible to examine gravity-sensitive responses without relying exclusively on limited flight opportunities.

​

Two-axis random positioning averages the direction of Earth’s gravity vector over time. Onboard acceleration measurement and feedback-based motor control establish the selected condition and record the gravity profile throughout each run. Biomimetic mechanical loading can be integrated into the same experimental environment to study how gravitational and mechanical forces interact within three-dimensional tissues and ex vivo organs.

 Improve Outcomes Before Launch

Test, Refine, and Validate

your hypotheses under targeted gravitational conditions before committing to spaceflight

Improve Statistical Significance 

By running replicates in a lab-controlled setting

Identify Critical Variables

Determine the biological variables that matter most in Martian, Lunar, or Low Earth Orbit conditions

Run Smarter, Faster, Cheaper Experiments

Biological & Biomedical Studies

Conduct your studies in custom partial-gravity environments

Simulate Realistic Missions

Apply mechanical forces and chemical treatments to simulate realistic mission stressors

Avoid Unnecessary Risks

Circumvent long delays, logistical risks, and cost overruns

Night Sky

Advancing 3D Tissue Engineering for Space Medicine and Biomanufacturing

Our technology enables advanced 3D tissue and organ culture by maintaining viability, structural integrity, and physiological relevance in complex 3D models. It allows researchers to study cell behavior, differentiation, and regeneration in space-like environments, providing unique insights into cellular processes. Additionally, it supports the development of preclinical data with direct relevance to future space medicine and biomanufacturing applications.

bottom of page