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The role of body-on-a-chip devices in drug and toxicity studies.

机译:芯片上设备在药物和毒性研究中的作用。

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High-quality, in vitro screening tools are essential in identifying promising compounds during drug development. Tests with currently used cell-based assays provide an indication of a compound's potential therapeutic benefits to the target tissue, but not to the whole body. Data obtained with animal models often cannot be extrapolated to humans. Multicompartment microfluidic-based devices, particularly those that are physical representations of physiologically based pharmacokinetic (PBPK) models, may contribute to improving the drug development process. These scaled-down devices, termed micro cell culture analogs (muCCAs) or body-on-a-chip devices, can simulate multitissue interactions under near-physiological fluid flow conditions and with realistic tissue-to-tissue size ratios. Because the device can be used with both animal and human cells, it can facilitate cross-species extrapolation. Used in conjunction with PBPK models, the devices permit an estimation of effective concentrations that can be used for studies with animal models or predict the human response. The devices also provide a means for relatively high-throughput screening of drug combinations and, when utilized with a patient's tissue sample, an opportunity for individualized medicine. Here we review efforts made toward the development of microfabricated cell culture systems and give examples that demonstrate their potential use in drug development, such as identifying synergistic drug interactions as well as simulating multiorgan metabolic interactions. In addition to their use in drug development, the devices also can be used to estimate the toxicity of chemicals as occupational hazards and environmental contaminants.
机译:高质量的体外筛选工具对于在药物开发过程中鉴定有前景的化合物至关重要。当前使用的基于细胞的测定法进行的测试表明了该化合物对靶组织(而不是整个身体)的潜在治疗益处。用动物模型获得的数据通常不能外推给人类。基于多室微流控的设备,尤其是那些基于生理学药代动力学(PBPK)模型的物理表示的设备,可能有助于改善药物开发过程。这些按比例缩小的设备,称为微细胞培养类似物(muCCAs)或单芯片机体设备,可以在接近生理流体流动的条件下,以逼真的组织与组织尺寸之比,模拟多组织相互作用。由于该设备可与动物和人类细胞一起使用,因此可以促进跨物种外推。与PBPK模型结合使用,该设备可以估算有效浓度,可将其用于动物模型研究或预测人类反应。该设备还提供了一种用于对药物组合进行相对高通量筛选的方法,并且在与患者的组织样本一起使用时,也提供了个性化药物的机会。在这里,我们回顾了对微型细胞培养系统开发的努力,并举例说明了它们在药物开发中的潜在用途,例如鉴定协同药物相互作用以及模拟多器官代谢相互作用。除了在药物开发中的用途外,该设备还可以用于评估作为职业危害和环境污染物的化学物质的毒性。

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