Martian Grow sends cannabis genetic samples to low Earth orbit to expose them to microgravity and space radiation, then retrieves, cultivates, and analyzes the plants for mutations that improve resilience, yield, and cannabinoid profiles.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional cannabis breeding relies on terrestrial environments, limiting exposure to extreme conditions that could reveal novel genetic traits. Consequently, growers have limited access to cultivars with enhanced stress tolerance, yield, or unique cannabinoid profiles.
Solution
Martian Grow conducts space-breeding experiments by sending cannabis genetic samples to low Earth orbit, where they experience microgravity and elevated radiation. After retrieval, the samples are cultivated and analyzed to identify genetic and phenotypic changes induced by space exposure. The company selects the most robust variants and incorporates them into new cannabis lines that exhibit improved resilience and performance. These space‑bred genetics are made available to growers seeking cultivars with higher yields, greater stress tolerance, and distinctive trait profiles. The entire pipeline—from launch to data publication—is tracked through an online portal, providing transparent research updates.
Target Audience
Primary customers are commercial cannabis growers and seed producers looking for high‑yield, stress‑tolerant cultivars, as well as research institutions interested in advanced plant genetics.
Features
- Orbital payload service that transports cannabis seed and tissue samples to space for microgravity and radiation exposure
- Post‑flight genomic sequencing and phenotypic analysis to detect space‑induced mutations and trait enhancements
- Selection and breeding program that integrates identified robust variants into commercial cannabis cultivars
- Online research portal delivering real‑time experiment data, findings, and genetic insights to customers
- Partnerships with seed companies and agricultural biotech firms to scale production of space‑derived genetics