Incubator-Free Organoid Culture in a Sealed Recirculatory System
Rosen, Y.; Doganyigit, K.; Arul, S.; Wachtel, E.; Ehrlich, D.; Venuturimilli, V.; Mouzaya, M.; Oriaku, S.; Ndiforchu, B.; Kaurala, G.; Hernandez, S.; Moarefian, M.; Schweiger, H.; Cisneros, A.; Zeraatkar, M.; Geng, J.; Mostajo-Radji, M. A.; Winkler, E.; Haussler, D.; Teodorescu, M.
Show abstract
Discovery in human biology is pivoting toward high-dimensional computational analysis of 3D in vitro models, but this progress is limited by reliance on conventional cell culture techniques. Realism and data collection are hindered by the environmental instabilities and accessibility constraints of standard incubators. We introduce an automated, sealed recirculatory system that eliminates these barriers, enabling unconstrained instrument integration and infrastructure-independent scalability. By employing gas-tight sealing, a liquid-phase gas buffer and a non-porous plastic gas exchanger, our technology maintains biological stability without the compromises of open-air vessels. This design eliminates the need for CO2 incubators and prevents the evaporative drift that typically plagues conventional open-culture vessels. Operating on the benchtop outside the cell culture suite, we demonstrate that our system supports continuous, multi-week live imaging of vascular organoids while maintaining metabolic viability, structural fidelity and electrophysiological activity in brain organoids comparable to traditional in-incubator cultures. TeaserA sealed benchtop device enables data-rich organoid culture beyond the constraints of the cell culture laboratory.
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