Quantum pBac : An effective, high‐capacity piggyBac ‐ based gene integration vector system for unlocking gene therapy potential

遗传增强 质粒 增强子 病毒载体 生物 嵌合抗原受体 计算生物学 基因 T细胞 遗传学 免疫系统 基因表达 重组DNA
作者
Wei‐Kai Hua,Jeff C. Hsu,Yi‐Chun Chen,Peter S. Chang,Kuo‐Lan Karen Wen,Po‐Nan Wang,Wei‐Cheng Yang,Chia‐Ning Shen,Yishan Yu,Ying‐Chun Chen,I‐Cheng Cheng,Sareina Chiung‐Yuan Wu
出处
期刊:The FASEB Journal [Wiley]
卷期号:37 (9): e23108-e23108 被引量:6
标识
DOI:10.1096/fj.202201654r
摘要

Recent advances in gene therapy have brought novel treatment options for cancer. However, the full potential of this approach has yet to be unlocked due to the limited payload capacity of commonly utilized viral vectors. Virus-free DNA transposons, including piggyBac, have the potential to obviate these shortcomings. In this study, we improved a previously modified piggyBac system with superior transposition efficiency. We demonstrated that the internal domain sequences (IDS) within the 3' terminal repeat domain of hyperactive piggyBac (hyPB) donor vector contain dominant enhancer elements. Plasmid-free donor vector devoid of IDS was used in conjunction with a helper plasmid expressing Quantum PBase™ v2 to generate an optimal piggyBac system, Quantum pBac™ (qPB), for use in T cells. qPB outperformed hyPB in CD20/CD19 CAR-T production in terms of performance as well as yield of the CAR-T cells produced. Furthermore, qPB also produced CAR-T cells with lower donor-associated variabilities compared to lentiviral vector. Importantly, qPB yielded mainly CD8+ CAR-TSCM cells, and the qPB-produced CAR-T cells effectively eliminated CD20/CD19-expressing tumor cells both in vitro and in vivo. Our findings confirm qPB as a promising virus-free vector system with an enhanced payload capacity to incorporate multiple genes. This highly efficient and potentially safe system will be expected to further advance gene therapy applications.
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