AstroMed
At AstroMed, we are redefining space exploration through innovative biotechnology. By cultivating specialized plants in regolith simulants and utilizing microorganisms as biofactories, we ensure optimal nutrition for astronauts on Lunar and Martian missions. Our research focuses on microbiome-driven in situ resource utilization, enabling us to support sustainable life in space. We also engineer microorganisms to produce critical compounds, such as antibiotics and pharmaceuticals, extending the capabilities of Life Support Systems. Additionally, we are dedicated to optimizing crop payload procedures and enhancing supply chain efficiency, reducing costs while ensuring reliable food sources for future space settlers. Join us as we pioneer the cultivation of life beyond Earth.
Expertise in Microbiome Utilization
AstroFarms uses the power of engineered microorganisms to change agricultural productivity and astronaut nutrition in space, giving us a clear edge over competitors in the field.
Comprehensive Life Support Systems
Our approach integrates advanced biotechnology to create a self-sustaining model capable of producing essential compounds like antibiotics and nutrients, addressing the diverse needs of space explorers in a streamlined and efficient manner.
Advantage in Resource Utilization
AstroFarms focuses in cultivating plant varieties specifically adapted to grow in regolith simulants, maximizing the use of local extraterrestrial resources and paving the way for sustainable space agriculture.
Strong Collaborative Framework
Our multidisciplinary team combines expertise from diverse fields, fostering a dynamic and innovative approach to solving the unique challenges of space colonization, surpassing the capabilities of less collaborative competitors.
AstroMed
Łukasz Szydłowski
Łukasz has been researching extremophilic life forms since his doctoral studies at Cambridge University. He later explored microbial communities that could generate electricity, examined interactions between plants and microbes in the rhizosphere, and analyzed human gut metagenomes to discover new functions. He also worked with JPL-NASA on characterizing new microorganisms from the International Space Station. His expertise spans wet lab techniques in molecular and synthetic biology and computational skills in genomic mining and annotating metabolic pathways.
