微滤
过滤(数学)
错流过滤
生物技术
生化工程
下游加工
滤波器(信号处理)
工艺工程
离心
过程(计算)
生物
计算机科学
膜
化学
色谱法
工程类
数学
生物化学
统计
操作系统
计算机视觉
作者
Lise Besnard,Virginie Fabre,Michael Fettig,Elina Gousseinov,Yasuhiro Kawakami,Nicolas Laroudie,Claire Scanlan,Priyabrata Pattnaik
标识
DOI:10.1016/j.biotechadv.2015.11.005
摘要
Vaccines are derived from a variety of sources including tissue extracts, bacterial cells, virus particles, recombinant mammalian, yeast and insect cell produced proteins and nucleic acids. The most common method of vaccine production is based on an initial fermentation process followed by purification. Production of vaccines is a complex process involving many different steps and processes. Selection of the appropriate purification method is critical to achieving desired purity of the final product. Clarification of vaccines is a critical step that strongly impacts product recovery and subsequent downstream purification. There are several technologies that can be applied for vaccine clarification. Selection of a harvesting method and equipment depends on the type of cells, product being harvested, and properties of the process fluids. These techniques include membrane filtration (microfiltration, tangential-flow filtration), centrifugation, and depth filtration (normal flow filtration). Historically vaccine harvest clarification was usually achieved by centrifugation followed by depth filtration. Recently membrane based technologies have gained prominence in vaccine clarification. The increasing use of single-use technologies in upstream processes necessitated a shift in harvest strategies. This review offers a comprehensive view on different membrane based technologies and their application in vaccine clarification, outlines the challenges involved and presents the current state of best practices in the clarification of vaccines.
科研通智能强力驱动
Strongly Powered by AbleSci AI