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An Improved Scalable Hydrogel Dish for Spheroid Culture.

Jonard Corpuz ValdozDallin J JacobsCollin G CribbsBenjamin C JohnsonBrandon M HemeyerEthan L DodsonJordan A SaunookeNicholas A FranksPeter Daniel PoulsonSeth R GarfieldConnor J KnightPam M Van Ry
Published in: Life (Basel, Switzerland) (2021)
Research in fields studying cellular response to surface tension and mechanical forces necessitate cell culture tools with tunability of substrate stiffness. We created a scalable hydrogel dish design to facilitate scaffold-free formation of multiple spheroids in a single dish. Our novel design features inner and outer walls, allowing efficient media changes and downstream experiments. The design is easily scalable, accommodating varying numbers of microwells per plate. We report that non-adherent hydrogel stiffness affects spheroid morphology and compaction. We found that spheroid morphology and viability in our hydrogel dishes were comparable to commercially available Aggrewell™800 plates, with improved tunability of surface stiffness and imaging area. Device function was demonstrated with a migration assay using two investigational inhibitors against EMT. We successfully maintained primary-derived spheroids from murine and porcine lungs in the hydrogel dish. These features increase the ability to produce highly consistent cell aggregates for biological research.
Keyphrases
  • drug delivery
  • tissue engineering
  • hyaluronic acid
  • wound healing
  • single cell
  • stem cells
  • high resolution
  • epithelial mesenchymal transition
  • cell therapy
  • bone marrow
  • open label
  • signaling pathway