芯片上器官
心脏瓣膜
细胞外基质
血流动力学
疾病
主动脉瓣
阀门更换
生物医学工程
计算机科学
医学
神经科学
心脏病学
内科学
生物
细胞生物学
纳米技术
材料科学
狭窄
微流控
作者
Ishita Tandon,Asya Ozkızılcık,Prashanth Ravishankar,Kartik Balachandran
出处
期刊:Biophysics reviews
[American Institute of Physics]
日期:2021-12-01
卷期号:2 (4): 041303-041303
被引量:4
摘要
Cardiac valves are sophisticated, dynamic structures residing in a complex mechanical and hemodynamic environment. Cardiac valve disease is an active and progressive disease resulting in severe socioeconomic burden, especially in the elderly. Valve disease also leads to a 50% increase in the possibility of associated cardiovascular events. Yet, valve replacement remains the standard of treatment with early detection, mitigation, and alternate therapeutic strategies still lacking. Effective study models are required to further elucidate disease mechanisms and diagnostic and therapeutic strategies. Organ-on-chip models offer a unique and powerful environment that incorporates the ease and reproducibility of in vitro systems along with the complexity and physiological recapitulation of the in vivo system. The key to developing effective valve-on-chip models is maintaining the cell and tissue-level microenvironment relevant to the study application. This review outlines the various components and factors that comprise and/or affect the cell microenvironment that ought to be considered while constructing a valve-on-chip model. This review also dives into the advancements made toward constructing valve-on-chip models with a specific focus on the aortic valve, that is, in vitro studies incorporating three-dimensional co-culture models that incorporate relevant extracellular matrices and mechanical and hemodynamic cues.
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