开发基于胆固醇标签的新型蛋白质药物跨膜转运系统。

IF 5.7 4区 生物学 Q1 BIOLOGY Bioscience trends Pub Date : 2024-01-30 Epub Date: 2023-12-08 DOI:10.5582/bst.2023.01285
Pengfei Zhao, Shuo Song, Zhuojun He, Guiqin Dai, Deliang Liu, Jiayin Shen, Tetsuya Asakawa, Mingbin Zheng, Hongzhou Lu
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引用次数: 0

摘要

开发蛋白质药物细胞内(跨膜)转运系统的主要技术难点在于两点:一是克服细胞膜的障碍,二是将足够的蛋白质药物,尤其是高剂量蛋白质装入颗粒中。为了解决这两个技术难题,我们最近开发了一种基于胆固醇标签(C-Tag)的新型跨膜转运系统。这项试验性研究发现,C-Tag 显著提高了活细胞对 Fab 的吸收率(与单独的 Fab 相比提高了 902 倍),表明它成功实现了跨膜转运。此外,C-Tag 介导的膜转运还通过使用微米级的大型单胺囊泡(LUVs,约 1.5 μm)颗粒得到了验证。C-Tagged Fab 能够渗透脂质体双分子层,并大大增强了蛋白质在基于 LUV 的颗粒中的内化(与单独使用 Fab 相比增加了 10.1 倍),这表明 C-Tag 能够将足够的蛋白质装入颗粒中,以用于高剂量蛋白质。因此,我们建立了一种新型的基于 C-Tag 的转运系统,克服了已知的蛋白质跨膜转运的技术难题,这可能是未来药物开发的一项有用技术。
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Development of a novel cholesterol tag-based system for trans-membrane transport of protein drugs.

The main technological difficulties of developing an intracellular (transmembrane) transport system for protein drugs lie in two points: i) overcoming the barriers in the cellular membrane, and ii) loading enough protein drugs, and particularly high-dose proteins, into particles. To address these two technological problems, we recently developed a novel cholesterol tag (C-Tag)-based transmembrane transport system. This pilot study found that the C-Tag dramatically improved the cellular uptake of Fab (902-fold, vs. Fab alone) into living cells, indicating that it successfully achieved transmembrane transport. Moreover, C-Tag-mediated membrane transport was verified using micron-scale large unilamellar vesicles (LUVs, approximately 1.5 μm)-based particles. The C-Tagged Fab was able to permeate the liposomal bilayer and it greatly enhanced (a 10.1-fold increase vs. Fab alone) internalization of proteins into the LUV-based particles, indicating that the C-Tag loaded enough proteins into particles for use of high-dose proteins. Accordingly, we established a novel C-Tag-based transport system that has overcome the known technological difficulties of protein transmembrane delivery, and this might be a useful technology for drug development in the future.

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来源期刊
CiteScore
13.60
自引率
1.80%
发文量
47
审稿时长
>12 weeks
期刊介绍: BioScience Trends (Print ISSN 1881-7815, Online ISSN 1881-7823) is an international peer-reviewed journal. BioScience Trends devotes to publishing the latest and most exciting advances in scientific research. Articles cover fields of life science such as biochemistry, molecular biology, clinical research, public health, medical care system, and social science in order to encourage cooperation and exchange among scientists and clinical researchers.
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