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Space.

The Final Frontier.

Humanity’s journey into space has been long and inspiring, from the first careful stargazing to rockets reaching orbit and footsteps on the Moon. Yet the vast expanse beyond our planet is unforgiving. Airless voids, extreme temperatures, intense radiation, and distances so enormous that even the closest planets feel almost unreachable, making survival a monumental challenge.

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At their closest, Earth and Mars are only 54.6 million kilometers apart. Even then, a spacecraft would take 6–9 months to reach Mars with current propulsion. Such long travel makes life support systems critical, as astronauts need reliable food, water, oxygen, and waste recycling to survive safely.

Astronauts face serious nutrition challenges during missions. Limited food supplies can weaken health, energy, and focus. Every meal must be balanced to provide all essential nutrients in an environment where errors can be life-threatening.

Astronaut nutrition

Protein is vital in space as microgravity speeds up muscle loss and slows repair. Without enough protein, astronauts quickly lose strength and endurance, putting health and mission performance at risk.

Protein importance

Biomanufacturing with single-cell proteins lets astronauts recycle waste into food. This sustainable method produces protein, vitamins, and amino acids while reducing reliance on costly resupply from Earth.

Our engineered yeast converts urea from astronaut waste into protein-rich biomass. By enhancing amino acid pathways, it provides a renewable and reliable nutrient source for long missions.

Yeast bioreactor

Cultured in compact bioreactors, this yeast produces safe protein powders ready for astronaut diets. On-board production reduces storage needs and ensures consistent access to essential nutrition.

Protein powder

Space radiation, including UV light and cosmic rays, can damage DNA and kill microbial cultures. Without protection, biomanufacturing systems would fail, threatening astronaut nutrition on long journeys.

DSUP, a protein from tardigrades, helps prevent DNA damage from ionizing radiation. By adding DSUP to yeast, microbial survival increases, ensuring continuous nutrient production.

DSUP protection

Melanin films act as biological sunscreens, shielding bioreactors from harmful UV radiation. These coatings improve yeast resilience, keeping protein production steady even in harsh space conditions.

Melanin films