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DOI: 10.3791/67314-v
This study presents a novel in vitro model for investigating female reproductive biology using a cost-effective, 3D-printed scaffold to support the culture of human embryonic stem cells and Ishikawa cell lines. The multi-cell in vitro model allows for a more accurate representation of the implantation region and highlights the benefits of reduced time and costs compared to traditional co-culture systems.
The protocol shows a novel in vitro experimental model that can recapitulate the biology of two kinds of adherent cell lines with a three-dimensional (3D)-printed scaffold. The construction of this model and operating procedures, from cell preparation and cell culture to analysis and evaluation, are described.
As the name of our institution, Maternal-Fetal Medicine Institute suggests, our research mainly focus on female reproductive biology. We aim to understand the mechanism of reproductive disorders and identify potential targets for treating them. One key advantage of this approach is the substantial reduction in time and expenditure compared to commercially available co-culture systems.
The homemade scaffold is constructed from readily available materials, significantly lowering the cost of the setup. This multi-cell in vitro models better represent a complex in vivo anatomy of the implantation region. In the future, our lab will introduce other cell types to this mixed seeding multi-cell in vitro model, and investigate more both implantation studies and uterine function in the pathogenesis of diseases such as endometrial injury and intrauterine adhering.
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