Center for Gynepathology Research, Massachusetts Institute of Technology, Cambridge, Massachusetts.
Department of Biological Engineering, Massachusetts Institute of Technology, Cambridge, Massachusetts.
Semin Reprod Med. 2020 May;38(2-03):179-196. doi: 10.1055/s-0040-1719084. Epub 2020 Nov 9.
Adenomyosis remains an enigmatic disease in the clinical and research communities. The high prevalence, diversity of morphological and symptomatic presentations, array of potential etiological explanations, and variable response to existing interventions suggest that different subgroups of patients with distinguishable mechanistic drivers of disease may exist. These factors, combined with the weak links to genetic predisposition, make the entire spectrum of the human condition challenging to model in animals. Here, after an overview of current approaches, a vision for applying physiomimetic modeling to adenomyosis is presented. Physiomimetics combines a system's biology analysis of patient populations to generate hypotheses about mechanistic bases for stratification with in vitro patient avatars to test these hypotheses. A substantial foundation for three-dimensional (3D) tissue engineering of adenomyosis lesions exists in several disparate areas: epithelial organoid technology; synthetic biomaterials matrices for epithelial-stromal coculture; smooth muscle 3D tissue engineering; and microvascular tissue engineering. These approaches can potentially be combined with microfluidic platform technologies to model the lesion microenvironment and can potentially be coupled to other microorgan systems to examine systemic effects. In vitro patient-derived models are constructed to answer specific questions leading to target identification and validation in a manner that informs preclinical research and ultimately clinical trial design.
子宫腺肌病在临床和研究领域仍然是一个谜。其高患病率、形态和症状表现的多样性、潜在病因解释的多样性,以及对现有干预措施的不同反应,表明可能存在具有不同疾病驱动机制的患者亚组。这些因素,加上与遗传易感性的微弱联系,使得动物模型难以模拟人类疾病的整个范围。在这里,在概述了当前方法之后,提出了将生理模拟应用于子宫腺肌病的设想。生理模拟将患者群体的系统生物学分析与基于分层的机制基础假设相结合,同时利用体外患者模拟物来检验这些假设。在几个不同领域中,已经为子宫腺肌病病变的三维(3D)组织工程建立了实质性的基础:上皮类器官技术;用于上皮-间质共培养的合成生物材料基质;平滑肌 3D 组织工程;以及微血管组织工程。这些方法可以与微流控平台技术相结合,以模拟病变微环境,并可以与其他微生物系统相结合,以检查全身效应。体外患者衍生模型的构建是为了回答特定的问题,从而以一种为临床前研究提供信息并最终为临床试验设计提供指导的方式来识别和验证目标。