Author:
Zhang Li,Tian Lin,Dai Xiaoyang,Yu Hua,Wang Jiajia,Lei Anhua,Zhu Mengmeng,Xu Jianpo,Zhao Wei,Zhu Yuqing,Sun Zhen,Zhang Hao,Hu Yongxian,Wang Yanlin,Xu Yuming,Church George M.,Huang He,Weng Qinjie,Zhang Jin
Abstract
Abstract
The Chimera antigen receptor (CAR)-T cell therapy has gained great success in the clinic. However, there are still major challenges for its wider applications in a variety of cancer types including lack of effectiveness due to the highly complex tumor microenvironment, and the forbiddingly high cost due to the personalized manufacturing procedures. In order to overcome these hurdles, numerous efforts have been spent focusing on optimizing Chimera antigen receptors, engineering and improving T cell capacity, exploiting features of subsets of T cell or NK cells, or making off-the-shelf universal cells. Here, we developed induced pluripotent stem cells (iPSCs)-derived, CAR-expressing macrophage cells (CAR-iMac). CAR expression confers antigen-dependent macrophage functions such as expression and secretion of cytokines, polarization toward the pro-inflammatory/anti-tumor state, enhanced phagocytosis of tumor cells, and in vivo anticancer cell activity. This technology platform for the first time provides an unlimited source of iPSC-derived engineered CAR-macrophage cells which could be utilized to eliminate cancer cells.
Funder
National Key Research and Development Program of China
National Natural Science Foundation projects of China
Zhejiang Natural Science Foundation projects of China
Publisher
Springer Science and Business Media LLC
Subject
Cancer Research,Oncology,Molecular Biology,Hematology
Cited by
225 articles.
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