Advanced photobioreactor technology that maximizes photosynthetic productivity with minimal inputs of water, CO2, and nutrients. Enables plant propagation and algae cultivation under precisely controlled extreme environmental conditions, with demonstrated 10x higher algae densities and 40% improved photon use efficiency.
This solution offers ultra-efficient controlled environment photosynthetic systems designed for plant propagation and algae cultivation. By treating closed ecosystems as scaled photobioreactors, the technology maximizes biological productivity while minimizing inputs of water, carbon dioxide, and nutrients. The systems are designed to study and optimize mass and energy balances of plants under extreme environmental conditions, including greenhouse gas stoichiometry and redox balance.
Key applications include precision hydroponic food production coupled with human respiratory output, ultra-high density algae cultivation for food and CO2 scrubbing, and watershed protection through improved duckweed cultivation. The technology addresses the growing demand for sustainable, resource-efficient cultivation methods in food production, carbon management, and ecosystem research.
Key features and capabilities:
The technology has progressed beyond initial validation with demonstrated proof-of-concept results. The temporary immersion photobioreactor has shown enhanced root development under elevated CO2 conditions, and the trickle-film photobioreactor has demonstrated greater than 10x improvements in algae density and production rates. A patent application has been filed for the trickle-film system. Future validation efforts include adapting the Hy-TIB system for duckweed growth with improved amino acid profiles, precision hydroponic food production, CO2 scrubbing applications, and exploring anaerobic photosynthesis for improved photon use efficiency in the IR spectrum.