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用于吸入测定的体外肺芯片平台的最新进展:从前景到研发管线。

Advanced in vitro lung-on-chip platforms for inhalation assays: From prospect to pipeline.

机构信息

Department of Biomedical Engineering, Technion - Israel Institute of Technology, Haifa 32000, Israel.

ARTORG Center for Biomedical Engineering Research, University of Bern, Switzerland; AlveoliX AG, Bern, Switzerland.

出版信息

Eur J Pharm Biopharm. 2019 Nov;144:11-17. doi: 10.1016/j.ejpb.2019.09.006. Epub 2019 Sep 6.

Abstract

With rapid advances in micro-fabrication processes and the availability of biologically-relevant lung cells, the development of lung-on-chip platforms is offering novel avenues for more realistic inhalation assays in pharmaceutical research, and thereby an opportunity to depart from traditional in vitro lung assays. As advanced models capturing the cellular pulmonary make-up at an air-liquid interface (ALI), lung-on-chips emulate both morphological features and biological functionality of the airway barrier with the ability to integrate respiratory breathing motions and ensuing tissue strains. Such in vitro systems allow importantly to mimic more realistic physiological respiratory flow conditions, with the opportunity to integrate physically-relevant transport determinants of aerosol inhalation therapy, i.e. recapitulating the pathway from airborne flight to deposition on the airway lumen. In this short opinion, we discuss such points and describe how these attributes are paving new avenues for exploring improved drug carrier designs (e.g. shape, size, etc.) and targeting strategies (e.g. conductive vs. respiratory regions) amongst other. We argue that while technical challenges still lie along the way in rendering in vitro lung-on-chip platforms more widespread across the general pharmaceutical research community, significant momentum is steadily underway in accelerating the prospect of establishing these as in vitro "gold standards".

摘要

随着微制造工艺的快速发展和生物相关肺细胞的可用性,肺芯片平台的发展为更真实的药物研究吸入检测提供了新途径,从而有机会脱离传统的体外肺检测。作为在气液界面(ALI)上模拟细胞肺部结构的先进模型,肺芯片能够模拟气道屏障的形态特征和生物学功能,并具有整合呼吸运动和随之而来的组织应变的能力。这种体外系统重要的是可以模拟更真实的生理呼吸流动条件,并能够整合气溶胶吸入治疗的物理相关传输决定因素,即重新模拟从空气中飞行到沉积在气道腔的途径。在这篇短评中,我们讨论了这些观点,并描述了这些特性如何为探索改进的药物载体设计(例如形状、大小等)和靶向策略(例如传导与呼吸区)等开辟新途径。我们认为,虽然在使体外肺芯片平台在更广泛的药物研究领域得到更广泛应用的过程中仍然存在技术挑战,但在加速将这些平台确立为体外“黄金标准”的前景方面,正在稳步取得重大进展。

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