Frenzel André, Schirrmann Thomas, Hust Michael
a YUMAB GmbH , Rebenring , Braunschweig.
b Technische Universität Braunschweig, Institut für Biochemie, Biotechnologie und Bioinformatik, Abteilung Biotechnologie , Braunschweig , Germany.
MAbs. 2016 Oct;8(7):1177-1194. doi: 10.1080/19420862.2016.1212149. Epub 2016 Jul 14.
Over the last 3 decades, monoclonal antibodies have become the most important class of therapeutic biologicals on the market. Development of therapeutic antibodies was accelerated by recombinant DNA technologies, which allowed the humanization of murine monoclonal antibodies to make them more similar to those of the human body and suitable for a broad range of chronic diseases like cancer and autoimmune diseases. In the early 1990s in vitro antibody selection technologies were developed that enabled the discovery of "fully" human antibodies with potentially superior clinical efficacy and lowest immunogenicity. Antibody phage display is the first and most widely used of the in vitro selection technologies. It has proven to be a robust, versatile platform technology for the discovery of human antibodies and a powerful engineering tool to improve antibody properties. As of the beginning of 2016, 6 human antibodies discovered or further developed by phage display were approved for therapy. In 2002, adalimumab (Humira®) became the first phage display-derived antibody granted a marketing approval. Humira® was also the first approved human antibody, and it is currently the best-selling antibody drug on the market. Numerous phage display-derived antibodies are currently under advanced clinical investigation, and, despite the availability of other technologies such as human antibody-producing transgenic mice, phage display has not lost its importance for the discovery and engineering of therapeutic antibodies. Here, we provide a comprehensive overview about phage display-derived antibodies that are approved for therapy or in clinical development. A selection of these antibodies is described in more detail to demonstrate different aspects of the phage display technology and its development over the last 25 years.
在过去30年里,单克隆抗体已成为市场上最重要的一类治疗性生物制品。重组DNA技术加速了治疗性抗体的研发,该技术使鼠源单克隆抗体人源化,使其更接近人体自身抗体,适用于癌症和自身免疫性疾病等多种慢性疾病。20世纪90年代初,体外抗体筛选技术得以开发,能够发现具有潜在更高临床疗效和最低免疫原性的“完全”人源抗体。抗体噬菌体展示是最早且应用最广泛的体外筛选技术。它已被证明是一种用于发现人源抗体的强大且通用的平台技术,也是改善抗体特性的有力工程工具。截至2016年初,6种通过噬菌体展示发现或进一步研发的人源抗体已获批用于治疗。2002年,阿达木单抗(修美乐®)成为首个获批上市的噬菌体展示衍生抗体。修美乐®也是首个获批的人源抗体,目前是市场上最畅销的抗体药物。目前,众多噬菌体展示衍生抗体正处于临床高级研究阶段,尽管有其他技术,如生产人源抗体的转基因小鼠,但噬菌体展示在治疗性抗体的发现和工程改造方面仍未失去其重要性。在此,我们全面概述了已获批用于治疗或处于临床开发阶段的噬菌体展示衍生抗体。详细描述了其中一些抗体,以展示噬菌体展示技术的不同方面及其在过去25年中的发展情况。