球体
乳腺癌
个性化医疗
体内
癌症研究
癌症
药品
体外
医学
限制
药物开发
肿瘤科
药理学
生物
内科学
生物信息学
生物技术
工程类
机械工程
生物化学
作者
Elisabeth Prince,Sina Kheiri,Yihe Wang,Fei Xu,Jennifer Cruickshank,Valentina Topolskaia,Huachen Tao,Elton T. Young,Alison P. McGuigan,David W. Cescon,Eugenia Kumacheva
标识
DOI:10.1002/adhm.202101085
摘要
Abstract One of the obstacles limiting progress in the development of effective cancer therapies is the shortage of preclinical models that capture the dynamic nature of tumor microenvironments. Interstitial flow strongly impacts tumor response to chemotherapy; however, conventional in vitro cancer models largely disregard this key feature. Here, a proof of principle microfluidic platform for the generation of large arrays of breast tumor spheroids that are grown under close‐to‐physiological flow in a biomimetic hydrogel is reported. This cancer spheroids‐on‐a‐chip model is used for time‐ and labor‐efficient studies of the effects of drug dose and supply rate on the chemosensitivity of breast tumor spheroids. The capability to grow large arrays of tumor spheroids from patient‐derived cells of different breast cancer subtypes is shown, and the correlation between in vivo drug efficacy and on‐chip spheroid drug response is demonstrated. The proposed platform can serve as an in vitro preclinical model for the development of personalized cancer therapies and effective screening of new anticancer drugs.
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