多器官芯片在癌症研究中的应用

Agnieszka Zuchowska, Sandra Skorupska
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引用次数: 13

摘要

癌症是仅次于心脏病的全球第二大死因。尽管抗癌疗法仍在不断发展,但癌症研究面临的主要挑战是建立合适的体外肿瘤预测模型。标准2D和越来越多使用的3D培养以及动物模型存在许多形态和生理差异。由于非线性剂量-毒性关系、机制不明确、非器官特异性毒性以及不良副作用,目前的体外模型往往不能准确预测毒性。相比之下,由于生理和种间代谢能力的差异,动物模型并不总是反映人类的毒性。针对这些问题,微流控肿瘤芯片系统及其与其他器官芯片模型(多器官芯片)的联系已成为癌症研究中很有前途的工具。这种类型的工具能够高度再现肿瘤和其他器官的动态微环境。通过芯片上的方法可以观察和了解转移的机制和发生的变化。此外,多器官芯片系统可以评估抗癌治疗(体外)对癌症的直接影响,也可以评估对周围器官的影响,这给个性化医疗带来了新的希望。
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Multi-organ-on-chip approach in cancer research

Cancer is the second cause of death worldwide after heart disease. Despite the still developing anticancer therapies, the main challenge in cancer research is the establishing the appropriate predictive in vitro tumor model. Standard 2D and the increasingly used 3D cultures, as well as animal models suffer from numerous morphological and physiological differences. Current in vitro models often do not accurately predict toxicity due to non-linear dose-toxicity relationships, unclear mechanisms, non-organ specific toxicity as well as adverse side effects. In contrast, animal models do not always reflect human toxicity due to differences in physiology and interspecies metabolic capacity. In response to these, microfluidic Tumor-on-chip systems and their connections with other Organ-on-chip models (multi-Organ-on-Chip) have become a promising tool in cancer research. This type of tools are able to highly reproduce the dynamic microenvironment of the tumor and other organs. With on-chip approach is possible to observe and understand the mechanism and the changes taking place in metastases. In addition, multi-Organ-on-chip systems enable an assessment of the impact of anti-cancer therapies (outside the human body) directly on cancer, but also on surrounding organs, which brings new hope in personalized medicine.

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来源期刊
Organs-on-a-chip
Organs-on-a-chip Analytical Chemistry, Biochemistry, Genetics and Molecular Biology (General), Cell Biology, Pharmacology, Toxicology and Pharmaceutics (General)
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期刊最新文献
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