Future Science OA · 2019 · 112 citations · 21 references
EngineeringBioengineeringBiomedical EngineeringRegenerative MedicineStem Cell BiologyTissue EngineeringAnimal Cell CultureOrgan EngineeringOrgan-on-chip SystemsPluripotent Stem CellsStem Cell BioengineeringTissue Engineering With Stem CellsGrowth FactorsInduced Pluripotent Stem CellsMicrophysiological Organ ModelsMicrophysiological Platform DesignOrgan-on-chip PlatformsOrgans-on-chipsStem Cell-based ModelsTissue Chips
Microphysiological systems play a pivotal role in progressing toward a global paradigm shift in drug development. Here, we designed a four-organ-chip interconnecting miniaturized human intestine, liver, brain and kidney equivalents. All four organ models were predifferentiated from induced pluripotent stem cells from the same healthy donor and integrated into the microphysiological system. The coculture of the four autologous tissue models in one common medium deprived of tissue specific growth factors was successful over 14-days. Although there were no added growth factors present in the coculture medium, the intestine, liver and neuronal model maintained defined marker expression. Only the renal model was overgrown by coexisting cells and did not further differentiate. This model platform will pave the way for autologous coculture cross-talk assays, disease induction and subsequent drug testing.
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Generation and assembly of human brain region–specific three-dimensional cultures
Steven A. Sloan, Jimena Andersen, Anca M. Pașca et al. · Nature Protocols · 2018 · 480 citations · Full text