摘要
Cancer cell motility and its heterogeneity play an important role in metastasis, which is responsible for death of 90% of cancer patients. Here, in combination with a microfluidic technique, single-cell tracking, and systematic motility analysis,we present a rapid and quantitative approach to judge the motility heterogeneity of breast cancer cells MDA-MB-231 and MCF-7 in a well-defined three-dimensional(3D) microenvironment with controllable conditions. Following this approach,identification of highly mobile active cells in a medium with epithelial growth factor will provide a practical tool for cell invasion and metastasis investigation of multiple cancer cell types, including primary cells. Further, this approach could potentially become a speedy(~ hours) and efficient tool for basic and clinical diagnosis.
Cancer cell motility and its heterogeneity play an important role in metastasis, which is responsible for death of 90% of cancer patients. Here, in combination with a microfluidic technique, single-cell tracking, and systematic motility analysis,we present a rapid and quantitative approach to judge the motility heterogeneity of breast cancer cells MDA-MB-231 and MCF-7 in a well-defined three-dimensional(3D) microenvironment with controllable conditions. Following this approach,identification of highly mobile active cells in a medium with epithelial growth factor will provide a practical tool for cell invasion and metastasis investigation of multiple cancer cell types, including primary cells. Further, this approach could potentially become a speedy(~ hours) and efficient tool for basic and clinical diagnosis.
作者
熊玲
刘艳平
刘如川
袁伟
王高
何益
帅建伟
焦阳
张溪祥
韩伟静
屈军乐
刘雳宇
Ling Xiong;Yanping Liu;Ruchuan Liu;Wei Yuan;Gao Wang;Yi He;Jianwei Shuai;Yang Jiao;Xixiang Zhang;Weijing Han;Junle Qu;Liyu Liu
基金
Project supported by the National Natural Science Foundation of China(Grant Nos.11674043 and 11604030)
the Fundamental Research Funds for the Central Universities,China(Grant No.2018CDJDWL0011)
the Fundamental and Advanced Research Program of Chongqing,China(Grant No.cstc2018jcyjAX0338)
Arizona State University Start-up Funds,USA