A 3D toolbox to enhance physiological relevance of human tissue models

N Picollet-D'Hahan, ME Dolega, L Liguori… - Trends in …, 2016 - cell.com
N Picollet-D'Hahan, ME Dolega, L Liguori, C Marquette, S Le Gac, X Gidrol, DK Martin
Trends in biotechnology, 2016cell.com
We discuss the current challenges and future prospects of flow-based organoid models and
3D self-assembling scaffolds. The existing paradigm of 3D culture suffers from a lack of
control over organoid size and shape; can be an obstacle for cell harvesting and extended
cellular and molecular analysis; and does not provide access to the function of exocrine
glands. Moreover, existing organ-on-chip models are mostly composed of 2D extracellular
matrix (ECM)-coated elastomeric membranes that do not mimic real organ architectures. A …
We discuss the current challenges and future prospects of flow-based organoid models and 3D self-assembling scaffolds. The existing paradigm of 3D culture suffers from a lack of control over organoid size and shape; can be an obstacle for cell harvesting and extended cellular and molecular analysis; and does not provide access to the function of exocrine glands. Moreover, existing organ-on-chip models are mostly composed of 2D extracellular matrix (ECM)-coated elastomeric membranes that do not mimic real organ architectures. A new comprehensive 3D toolbox for cell biology has emerged to address some of these issues. Advances in microfabrication and cell-culturing approaches enable the engineering of sophisticated models that mimic organ 3D architectures and physiological conditions, while supporting flow-based drug screening and secretomics-based diagnosis.
cell.com