Zilberman-Rudenko Jevgenia, Sylman Joanna L, Garland Kathleen S, Puy Cristina, Wong Andrew D, Searson Peter C, McCarty Owen J T
a Biomedical Engineering, School of Medicine , Oregon Health and Science University , Portland , OR , USA.
c Division of Pediatric Hematology/Oncology , Oregon Health and Science University , Portland , OR , USA.
Platelets. 2017 Jul;28(5):449-456. doi: 10.1080/09537104.2017.1280600. Epub 2017 Mar 30.
The integration of biomaterials and understanding of vascular biology has led to the development of perfusable endothelialized flow models, which have been used as valuable tools to study the platelet-endothelium interface under shear. In these models, the parameters of geometry, compliance, biorheology, and cellular complexity are varied to recapitulate the physical biology of platelet recruitment and activation under physiologically relevant conditions of blood flow. In this review, we summarize the mechanistic insights learned from perfusable microvessel models and discuss the potential utility as well as challenges of endothelialized microfluidic devices to study platelet function in the bloodstream in vitro.
生物材料与血管生物学知识的整合催生了可灌注内皮化血流模型,这些模型已成为研究剪切力作用下血小板与内皮细胞界面的重要工具。在这些模型中,通过改变几何结构、顺应性、生物流变学和细胞复杂性等参数,来模拟生理相关血流条件下血小板募集和激活的物理生物学过程。在本综述中,我们总结了从可灌注微血管模型中获得的机制性见解,并讨论了内皮化微流控装置在体外研究血流中血小板功能的潜在用途及面临的挑战。