Biomanufacturing in Space: Bionutrients and CO2-Based Manufacturing | AIChE

Biomanufacturing in Space: Bionutrients and CO2-Based Manufacturing

Authors 

Ball, N., KBR
Kagawa, H., KBR
Hindupur, A., NASA Ames Research Center
Vu, S. T., Nasa Ames Research Center
Kostakis, A., NASA Ames Research Center
Sims, K., NASA Ames Research Center
Sharif, S., NASA Ames Research Center
Villanueva, A. G., NASA Ames Research Center
Roque, O. A., NASA Ames Research Center
Downing, S. A., NASA Ames Research Center
Dougherty, M. J., NASA Ames Research Center
Galazka, J. M., University of California at Berkeley
Ray, H. E., NASA Ames Research Center
Anderson, L. M., ASRC Federal
Jones, H. W., NASA Ames Research Center
Gresser, A. L., NASA Ames Research Center
Settles, A. M., NASA Ames Research Center
Donovan, F. M., NASA Ames Research Center
Biomanufacturing can provide on-demand production of mission-critical compounds and materials to support long-duration space exploration while circumventing the challenges of transporting materials from Earth. The NASA Synthetic Biology Project is developing two biomanufacturing capabilities: BioNutrients and CO2-Based Manufacturing. BioNutrients is an ongoing mission aboard the International Space Station focused on the production of perishable nutrients in an on demand for direct for consumption. The first flight experiment of this project targeted the production of carotenoids: β-carotene and zeaxanthin, in recombinant yeast strains. Since then, the project has expanded to encompass the production of the fermented consumables like yogurt and kefir for use as a nutrient delivery mechanism. The CO2-Based Manufacturing system aims to use in situ resources to allow for biomanufacturing with minimal re-supply required. The manufacturing platform is combined with an electrochemical CO2 conversion system which can produce simple carbon substrates to support microbial based biomanufacturing. A comprehensive ground-based platform for recombinant protein purification is in development with the goal of producing a thermostable carbonic anhydrase enzyme from E. coli utilizing CO2-derived acetate. Our group hopes to propel advancements in space biomanufacturing for long duration space flight by harnessing the tools of synthetic biology.