Three-Dimensional Magnetic Bioprinting Spheroids as an In Vitro Model to Study the Oviductal Physiology

IF 3 3区 生物学 Q3 BIOCHEMISTRY & MOLECULAR BIOLOGY
Patricia Kubo Fontes, Ana Beatriz Florencio da Silva, Ana Beatriz dos Reis Bartoli, Thays Antunes, Arnaldo Rodrigues dos Santos Júnior, Marcella Pecora Milazzotto
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Abstract

In vitro models to study the oviduct are challenged by cellular dedifferentiation, a complex coculture system for embryo production, limited cell lifespan, and/or very complex methodologies. Hence, we aimed to develop an in vitro oviductal model using the magnetic bioprinting system, a three-dimensional (3D) culture system. Using the bovine epithelial and stromal oviductal cells (BOEC and BOSC, respectively), we produced the Oviductal Magnetic Spheroid (OMS), a duo somatic cell spheroid aggregate with self-organization capacity. The OMS showed to be viable for 21 days and recapitulated the oviductal tissue features after 7 days in culture, such as a simple epithelial cell layer facing outwards, expressing ciliation (acetylated tubulin positive) and secretory marker (oviduct-specific glycoprotein 1). Although the responsiveness for hormonal treatment with estradiol and progesterone in an estrous cycle-dependent way might require further improvements, the OMS offers an ethical and practical alternative as a three-dimensional oviductal in vitro model to study oviductal physiology, and maybe, a future platform to test therapies and a technology aiming to improve fertility and assisted reproduction success.

Abstract Image

三维生物磁打印球体体外模型研究输卵管生理
研究输卵管的体外模型受到细胞去分化、胚胎产生的复杂共培养系统、有限的细胞寿命和/或非常复杂的方法的挑战。因此,我们的目标是利用磁性生物打印系统开发体外输卵管模型,这是一种三维(3D)培养系统。利用牛输卵管上皮细胞和基质细胞(分别为BOEC和BOSC),制备了具有自组织能力的双体细胞球体聚集体——输卵管磁性球体(OMS)。结果表明,OMS可存活21天,培养7天后重现了输卵管组织特征,如向外的简单上皮细胞层,表达调解(乙酰化微管蛋白阳性)和分泌标志物(输卵管特异性糖蛋白1)。虽然对雌激素和黄体酮激素治疗的反应性依赖于排卵周期的方式可能需要进一步改进,但OMS提供了一个道德和实用的替代方案,作为三维输卵管体外模型来研究输卵管生理学,并且可能是未来测试治疗和旨在提高生育能力和辅助生殖成功的技术的平台。
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来源期刊
CiteScore
5.20
自引率
0.00%
发文量
78
审稿时长
6-12 weeks
期刊介绍: Molecular Reproduction and Development takes an integrated, systems-biology approach to understand the dynamic continuum of cellular, reproductive, and developmental processes. This journal fosters dialogue among diverse disciplines through primary research communications and educational forums, with the philosophy that fundamental findings within the life sciences result from a convergence of disciplines. Increasingly, readers of the Journal need to be informed of diverse, yet integrated, topics impinging on their areas of interest. This requires an expansion in thinking towards non-traditional, interdisciplinary experimental design and data analysis.
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