Pregnancy-associated organs-on-chips

IF 42.7
Luis Pérez Dávalos, Sarah McColman, Mahmoud Abdelkarim, Byeong-Ui Moon, Lidija Malic, Teodor Veres, Milica Radisic, Hagar I. Labouta
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引用次数: 0

Abstract

Pregnancy involves constant structural and functional remodelling of maternal and fetal tissues, driven by dynamic interactions between cells, extracellular matrix and tightly regulated biochemical and mechanical cues. These microenvironmental changes, such as cell differentiation, tissue remodelling and perfusion, are essential for fetal development and healthy pregnancy outcomes. However, the physiological complexity and temporal changes of such dynamic gestational events are difficult to reproduce in conventional in vitro models, limiting their physiological relevance for studying pregnancy-related disorders and testing potential therapies. Pregnancy-associated organs-on-chips (PAOOCs) are microphysiological systems that recreate key features of gestational tissues to enable investigations of the underlying mechanisms, progression and treatment of pregnancy-related conditions. These models integrate relevant cell types within engineered extracellular matrices and controlled perfusion to reproduce tissue–tissue interfaces, biochemical gradients and mechanical cues; for example, to model the placental barrier, fetal membrane and transport of drugs and xenobiotics between maternal and fetal systems. However, improving physiological fidelity introduces trade-offs in device complexity, feasibility, scalability and reproducibility. In this Review, we analyse PAOOC technologies, focusing on design parameters that enhance their fidelity to model pregnancy physiology and pathology. We discuss how microenvironmental changes during gestation inform device engineering and provide an application-driven perspective linking biology with design, reproducibility and scalability considerations. By discussing challenges and opportunities of PAOOC design, this Review highlights their potential as platforms for elucidating the mechanisms of gestational diseases, assessing drug efficacy and safety during pregnancy, and advancing reproductive bioengineering for maternal and fetal health. Pregnancy-associated organs-on-chips (PAOOCs) are microphysiological systems that model gestational tissues to unveil the mechanisms of obstetric conditions and evaluate drug safety and efficacy during pregnancy in vitro. In this Review, we discuss the biological and mechanical components of PAOOCs and propose design recommendations to improve their physiological fidelity, reproducibility and accessibility.
乳素organs-on-chips
在细胞、细胞外基质和严格调控的生化和机械信号的动态相互作用下,妊娠涉及母体和胎儿组织不断的结构和功能重塑。这些微环境变化,如细胞分化、组织重塑和灌注,对胎儿发育和健康的妊娠结局至关重要。然而,这些动态妊娠事件的生理复杂性和时间变化难以在传统的体外模型中重现,这限制了它们在研究妊娠相关疾病和测试潜在治疗方法方面的生理相关性。妊娠相关器官芯片(PAOOCs)是一种微生理系统,可以重建妊娠组织的关键特征,从而研究妊娠相关疾病的潜在机制、进展和治疗。这些模型将相关细胞类型整合到工程细胞外基质和控制灌注中,以重现组织-组织界面、生化梯度和机械线索;例如,模拟胎盘屏障、胎膜以及母婴系统之间药物和外源性药物的运输。然而,提高生理保真度需要在设备复杂性、可行性、可扩展性和可重复性方面进行权衡。在这篇综述中,我们分析了PAOOC技术,重点是设计参数,以提高其对模拟妊娠生理和病理的保真度。我们讨论了妊娠期间的微环境变化如何影响设备工程,并提供了一个应用驱动的视角,将生物学与设计、可重复性和可扩展性考虑联系起来。通过讨论PAOOC设计的挑战和机遇,本综述强调了它们作为阐明妊娠疾病机制、评估妊娠期药物疗效和安全性以及促进母婴健康生殖生物工程的平台的潜力。妊娠相关器官芯片(PAOOCs)是一种微生理系统,可以模拟妊娠组织,揭示产科疾病的机制,并在体外评估妊娠期间药物的安全性和有效性。本文讨论了PAOOCs的生物学和力学组成,并提出了提高其生理保真度、可重复性和可及性的设计建议。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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