TY - JOUR
T1 - A bionic “Trojan horse”-like gene delivery system hybridized with tumor and macrophage cell membrane for cancer therapy
AU - Shen, Tianli
AU - Yang, Shuanying
AU - Qu, Xiaoyan
AU - Chen, Zilu
AU - Zeng, Lizhong
AU - Sun, Xuejun
AU - Lin, Yuyao
AU - Luo, Meng
AU - Lei, Bo
AU - Yue, Chenyang
AU - Ma, Chunhong
AU - Hu, Nan
AU - Wang, Wei
AU - Zhang, Long
N1 - Publisher Copyright:
© 2023
PY - 2023/6
Y1 - 2023/6
N2 - MiRNA-based gene therapy as a novel targeted therapy has yielded promising results in experimental cancer treatment, however, the inefficient delivery of miRNA to target tissues has limited its application in vivo. Here a unique dual-membrane-camouflaged miRNA21 antagomir delivery nanoplatform (M@NPs/miR21) with immune escape and homologous targeting properties was constructed by cancer cell membrane and macrophage membrane. Different from the single-cell membrane camouflage strategy, the dual-membrane camouflage miRNA21 antagomir delivery nanoplatform based on modification of CD47 protein with immune escape signal and galectin-3 protein with tumor cell aggregation enables efficient, safe and targeted therapy for colon cancer and lung metastases. Camouflaged with the dual-cell membrane, the “Trojan horse” like “pseudo-tumor cell” and/or “pseudo-macrophage” (M@NPs/miR21) carried the target gene miR21 antagomir to the tumor site and showed significant anti-tumor properties at the periphery and the core of subcutaneous tumor tissues. In addition, M@NPs/miR21 was more likely to penetrate dense tumor tissues and function within the tumor mass than NPs/miR21 without membrane coating. M@NPs/miR21 can deliver miR21 antagomir into MC38 cancer cells and tumor tissues, promote tumor apoptosis, and regulate the expression of Bcl2 and Ki67. Moreover, the M@NPs/miR21 gene delivery system not only can effectively inhibit the progression of subcutaneous tumors and lung metastases, but also showed minimal toxicity and good biosafety, making this delivery system particularly attractive for future translational research.
AB - MiRNA-based gene therapy as a novel targeted therapy has yielded promising results in experimental cancer treatment, however, the inefficient delivery of miRNA to target tissues has limited its application in vivo. Here a unique dual-membrane-camouflaged miRNA21 antagomir delivery nanoplatform (M@NPs/miR21) with immune escape and homologous targeting properties was constructed by cancer cell membrane and macrophage membrane. Different from the single-cell membrane camouflage strategy, the dual-membrane camouflage miRNA21 antagomir delivery nanoplatform based on modification of CD47 protein with immune escape signal and galectin-3 protein with tumor cell aggregation enables efficient, safe and targeted therapy for colon cancer and lung metastases. Camouflaged with the dual-cell membrane, the “Trojan horse” like “pseudo-tumor cell” and/or “pseudo-macrophage” (M@NPs/miR21) carried the target gene miR21 antagomir to the tumor site and showed significant anti-tumor properties at the periphery and the core of subcutaneous tumor tissues. In addition, M@NPs/miR21 was more likely to penetrate dense tumor tissues and function within the tumor mass than NPs/miR21 without membrane coating. M@NPs/miR21 can deliver miR21 antagomir into MC38 cancer cells and tumor tissues, promote tumor apoptosis, and regulate the expression of Bcl2 and Ki67. Moreover, the M@NPs/miR21 gene delivery system not only can effectively inhibit the progression of subcutaneous tumors and lung metastases, but also showed minimal toxicity and good biosafety, making this delivery system particularly attractive for future translational research.
KW - Dual-membrane camouflage
KW - Gene delivery system
KW - Homologous targeting
KW - Immune escape
KW - cancer therapy
UR - https://www.scopus.com/pages/publications/85154559922
U2 - 10.1016/j.jconrel.2023.04.046
DO - 10.1016/j.jconrel.2023.04.046
M3 - 文章
C2 - 37121518
AN - SCOPUS:85154559922
SN - 0168-3659
VL - 358
SP - 204
EP - 218
JO - Journal of Controlled Release
JF - Journal of Controlled Release
ER -