Optimization of Flow-Through Chromatography of Proteins

被引:6
作者
Hasegawa, Sumiko [1 ]
Chen, Chyi-Shin [1 ]
Yoshimoto, Noriko [1 ]
Yamamoto, Shuichi [1 ]
机构
[1] Yamaguchi Univ, Biomed Engn Ctr YUBEC, Grad Sch Med, Ube, Yamaguchi 7558611, Japan
关键词
Protein Separation; Flow-Through Chromatography; Linear Gradient Elution; Numerical Simulation; Productivity; PURIFICATION; SEPARATION; DESIGN; TRENDS; VIRUS;
D O I
10.1252/jcej.20we003
中图分类号
TQ [化学工业];
学科分类号
0817 ;
摘要
Continuous or integrated downstream processing is expected to increase the productivity of protein drug production. However, it is not easy to design and operate continuous downstream processing as many batch chromatography unit operations are involved. An operation method known as flow-through chromatography (FTC) is an efficient method for separating a target protein. In FTC, a target protein is recovered from the chromatography column without adsorption whereas contaminants are tightly bound. Although the operation is simple, choosing the right mobile phase, column dimension and operating conditions is not easy as the separation is quite sensitive to mobile phase salt concentration and pH as well as operating conditions. In this study, we developed an optimization method for FTC. The model system was removal of protein dimer from the monomer by anion exchange chromatography. It was shown that by choosing the right mobile phase salt concentration and the flow-velocity (residence time) similar high productivities can be obtained at pH 6.0, 7.0 and 8.0.It was also found that FTC processes are quite sensitive to the mobile phase salt concentration.
引用
收藏
页码:214 / 221
页数:8
相关论文
共 30 条
[1]  
Carta G., 2010, PROTEIN CHROMATOGRAP
[2]   Definition and dynamic control of a continuous chromatography process independent of cell culture titer and impurities [J].
Chmielowski, Rebecca A. ;
Mathiasson, Linda ;
Blom, Hans ;
Go, Daniel ;
Ehring, Hanno ;
Khan, Heera ;
Li, Hong ;
Cutler, Collette ;
Lacki, Karol ;
Tugcu, Nihal ;
Roush, David .
JOURNAL OF CHROMATOGRAPHY A, 2017, 1526 :58-69
[3]   The therapeutic monoclonal antibody market [J].
Ecker, Dawn M. ;
Jones, Susan Dana ;
Levine, Howard L. .
MABS, 2015, 7 (01) :9-14
[4]  
Farid S. S., 2009, BIOPHARM INT OCTOBER
[5]  
Gronemeyer Petra, 2014, Bioengineering-Basel, V1, P188, DOI 10.3390/bioengineering1040188
[6]   Simulating and Optimizing Preparative Protein Chromatography with ChromX [J].
Hahn, Tobias ;
Huuk, Thiemo ;
Heuveline, Vincent ;
Hubbuch, Juergen .
JOURNAL OF CHEMICAL EDUCATION, 2015, 92 (09) :1497-1502
[7]   Accelerated Method for Designing Flow-Through Chromatography of Proteins [J].
Hasegawa, Sumiko ;
Chen, Chyi-Shin ;
Yoshimoto, Noriko ;
Yamamoto, Shuichi .
JOURNAL OF CHEMICAL ENGINEERING OF JAPAN, 2020, 53 (05) :206-213
[8]   Effects of bovine serum albumin heterogeneity on frontal analysis with anion-exchange media [J].
Hunter, AK ;
Carta, G .
JOURNAL OF CHROMATOGRAPHY A, 2001, 937 (1-2) :13-19
[9]   Polishing approach with fully connected flow-through purification for therapeutic monoclonal antibody [J].
Ichihara, Takamitsu ;
Ito, Takao ;
Gillespie, Christopher .
ENGINEERING IN LIFE SCIENCES, 2019, 19 (01) :31-36
[10]   Integrated flow-through purification for therapeutic monoclonal antibodies processing [J].
Ichihara, Takamitsu ;
Ito, Takao ;
Kurisu, Yasuhiko ;
Galipeau, Kevin ;
Gillespie, Christopher .
MABS, 2018, 10 (02) :325-334