Abstract
Despite its importance to development and human health, placental biology remains poorly understood. Considering the significant variation in placental architecture, biology and development, across species, animal models poorly capture the physiology of human placenta, and processes occurring in conditions such as pre-eclampsia and other pregnancy disorders. Organoids have emerged as exceptional tissue models to study cell and tissue biology in a human context in vitro [1, 2]. However, placental organoids do not currently recapitulate the normal architecture and polarity of this tissue [3]. This project aims to microfabricate placental organoids using state of the art microfluidic platforms and engineered artificial extra-cellular matrix.
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