首页> 外文期刊>Philosophical Transactions of the Royal Society of London, Series B. Biological Sciences >Microfabrication of liver and heart tissues for drug development
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Microfabrication of liver and heart tissues for drug development

机译:肝脏和心脏组织的微型制作药物开发

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Drug-induced liver-and cardiotoxicity remain among the leading causes of preclinical and clinical drug attrition, marketplace drug withdrawals and black-box warnings on marketed drugs. Unfortunately, animal testing has proven to be insufficient for accurately predicting drug-induced liver-and cardiotoxicity across many drug classes, likely due to significant differences in tissue functions across species. Thus, the field of in vitro human tissue engineering has gained increasing importance over the last 10 years. Technologies such as protein micropatterning, microfluidics, three-dimensional scaffolds and bioprinting have revolutionized in vitro platforms as well as increased the long-term phenotypic stability of both primary cells and stem cell-derived differentiated cells. Here, we discuss advances in engineering approaches for constructing in vitro human liver and heart models with utility for drug development. Design features and validation data of representative models are presented to highlight major trends followed by the discussion of pending issues. Overall, bioengineered liver and heart models have significantly advanced our understanding of organ function and injury, which will prove useful for mitigating the risk of drug-induced organ toxicity to human patients, reducing animal usage for preclinical drug testing, aiding in the discovery of novel therapeutics against human diseases, and ultimately for applications in regenerative medicine.
机译:药物诱导的肝脏和心脏毒性仍然是临床前和临床药物磨损的主要原因,市场吸毒和销售药物的黑匣子警告。不幸的是,动物检测已被证明是不足以准确地预测许多药物课程的药物诱导的肝脏和心脏毒性,这可能由于种类跨的组织功能显着差异。因此,在过去10年中,体外人体组织工程的领域已经增加了重要性。蛋白质微型陶器,微流体,三维支架和生物监测等技术彻底改变了体外平台,以及增加了主要细胞和干细胞衍生的分化细胞的长期表型稳定性。在这里,我们讨论了工程方法,以利用药物发育的实用性构建体外人肝和心脏模型。提出了代表模型的设计特征和验证数据,以突出主要趋势,然后讨论待处理问题。总体而言,生物工程肝脏和心脏模型显着提出了我们对器官功能和损伤的理解,这将证明可用于减轻药物诱导的器官毒性对人类患者的风险,降低了对临床前药物检测的动物使用,帮助解释了新颖的针对人类疾病的治疗药,最终用于再生医学的应用。

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