Ofori-Kwafo Awurama, Sigdel Indira, Al Mamun Earshed, Zubcevic Jasenka, Tang Yuan
Department of Bioengineering, College of Engineering, University of Toledo, Toledo, Ohio, USA.
University of South Florida Center for Microbiome Research, Microbiomes Institute, Tampa, Florida, USA.
Physiol Rep. 2025 May;13(9):e70356. doi: 10.14814/phy2.70356.
The gastrointestinal (GI) tract plays a critical role in nutrient absorption, immune responses, and overall health. Traditional models such as two-dimensional cell cultures have provided valuable insights but fail to replicate the dynamic and complex microenvironment of the human gut. Gut-on-a-chip platforms, which incorporate cells located in the gut into microfluidic devices that simulate peristaltic motion and fluid flow, represent a significant advancement in modeling GI physiology and diseases. This review discusses the evolution of gut-on-a-chip technology, from simple cellular mono-cultures models to more sophisticated systems incorporating bi-cultures and tri-cultures that enable studies of drug metabolism, disease modeling, and gut-microbiome interactions. Although challenges remain, including maintaining long-term cell viability and replicating immune responses, these platforms hold great potential for advancing personalized medicine and improving drug discovery efforts targeting gastrointestinal disorders.
胃肠道在营养吸收、免疫反应及整体健康方面发挥着关键作用。二维细胞培养等传统模型虽提供了有价值的见解,但无法复制人类肠道动态且复杂的微环境。芯片肠道平台将肠道中的细胞整合到模拟蠕动和流体流动的微流控装置中,代表了胃肠道生理学和疾病建模方面的重大进展。本文综述了芯片肠道技术的发展历程,从简单的细胞单培养模型到包含双培养和三培养的更复杂系统,这些系统能够进行药物代谢研究、疾病建模以及肠道微生物组相互作用研究。尽管仍存在挑战,包括维持长期细胞活力和复制免疫反应,但这些平台在推进个性化医疗以及改善针对胃肠道疾病的药物研发工作方面具有巨大潜力。