Saroha Preeti, Patil Rucha S, Rathore Anurag S
Department of Chemical Engineering, Indian Institute of Technology, New Delhi, India.
Prep Biochem Biotechnol. 2025 Feb;55(2):131-140. doi: 10.1080/10826068.2024.2394446. Epub 2024 Aug 28.
Recombinant fabs dominate the pharmaceutical pipelines today with microbial host systems continuing to be a major contributor toward their production. is a versatile host for recombinant protein expression due to its simplicity, affordability, and ability to be cultivated at high cell density. It is particularly suitable for non-glycosylated proteins and small proteins. Despite the aforementioned benefits, the use of as the host for the synthesis of recombinant antibody fragments often suffers from low yield and reduced activity. In most cases, proteins are expressed as inclusion bodies and need to undergo refolding to achieve their active forms and this refolding step is generally low-yielding. In this article, we review the various approaches that researchers have taken to enhance the production of recombinant antibody fragments in . Molecular biology-oriented approaches such as cloning, chaperone-mediated folding, and host cell screening as well as process optimization involving examination of process parameters, media, and feeding have been addressed.
如今,重组Fabs主导着制药产品线,微生物宿主系统仍然是其生产的主要贡献者。由于其简单性、经济性以及能够在高细胞密度下培养,它是重组蛋白表达的通用宿主。它特别适合非糖基化蛋白和小蛋白。尽管有上述优点,但使用它作为合成重组抗体片段的宿主常常产量低且活性降低。在大多数情况下,蛋白质以包涵体形式表达,需要进行重折叠以获得其活性形式,而这个重折叠步骤通常产量很低。在本文中,我们综述了研究人员为提高其重组抗体片段产量所采取的各种方法。已经讨论了诸如克隆、伴侣介导的折叠和宿主细胞筛选等面向分子生物学的方法,以及涉及工艺参数、培养基和补料检查的工艺优化。