We propose a human-derived neuro-/glial cell three-dimensional in vitro model to investigate the effects of microgravity on cellcell interactions. A rotary cell-culture system (RCCS) bioreactor was used to generate a modelled microgravity environment, and morphofunctional features of glial-like GL15 and neuronal-like SH-SY5Y cells in three-dimensional individual cultures (monotypic aggregates) and cocultures (heterotypic aggregates) were analysed. Cell survival was maintained within all cell aggregates over 2 weeks of culture.Moreover, compared to cells as traditional staticmonolayers, cell aggregates cultured undermodelled microgravity showed increased expression of specific differentiation markers (e.g., GL15 cells: GFAP, S100B; SH-SY5Y cells: GAP43) and modulation of functional cell-cell interactions (e.g., N-CAM and Cx43 expression and localisation). In conclusion, this culture model opens a wide range of specific investigations at the molecular, biochemical, and morphological levels, and it represents an important tool for in vitro studies into dynamic interactions and responses of nervous system cell components to microgravity environmental conditions.

RCCS bioreactor-based modelled microgravity induces significant changes on in vitro 3D neuroglial cell cultures

Morabito, Caterina;Guarnieri, Simone;Fanò-Illic, Giorgio;Mariggiò, Maria A.
2015-01-01

Abstract

We propose a human-derived neuro-/glial cell three-dimensional in vitro model to investigate the effects of microgravity on cellcell interactions. A rotary cell-culture system (RCCS) bioreactor was used to generate a modelled microgravity environment, and morphofunctional features of glial-like GL15 and neuronal-like SH-SY5Y cells in three-dimensional individual cultures (monotypic aggregates) and cocultures (heterotypic aggregates) were analysed. Cell survival was maintained within all cell aggregates over 2 weeks of culture.Moreover, compared to cells as traditional staticmonolayers, cell aggregates cultured undermodelled microgravity showed increased expression of specific differentiation markers (e.g., GL15 cells: GFAP, S100B; SH-SY5Y cells: GAP43) and modulation of functional cell-cell interactions (e.g., N-CAM and Cx43 expression and localisation). In conclusion, this culture model opens a wide range of specific investigations at the molecular, biochemical, and morphological levels, and it represents an important tool for in vitro studies into dynamic interactions and responses of nervous system cell components to microgravity environmental conditions.
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11564/641988
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