Multistage continuous countercurrent diafiltration for formulation of monoclonal antibodies

被引:28
|
作者
Jabra, Mario G. [1 ]
Yehl, Christopher J. [1 ]
Zydney, Andrew L. [1 ]
机构
[1] Penn State Univ, Dept Chem Engn, 41 Greenberg Bldg, University Pk, PA 16802 USA
关键词
antibody; continuous processing; countercurrent staging; diafiltration; formulation;
D O I
10.1002/btpr.2810
中图分类号
Q81 [生物工程学(生物技术)]; Q93 [微生物学];
学科分类号
071005 ; 0836 ; 090102 ; 100705 ;
摘要
There is growing interest in the development of fully integrated and continuous biomanufacturing processes for the production of monoclonal antibody products. A recent study has demonstrated the feasibility of using a two-stage countercurrent diafiltration (DF) process for continuous product formulation, but this system did not provide sufficient levels of buffer exchange for most applications. The objective of this study was to design and test a three-stage countercurrent DF system that could achieve at least 99.9% buffer exchange over 24 hr of continuous operation. Experimental data were obtained using concentrated solutions of human immunoglobulin G as a model protein, with the extent of vitamin B-12 removal used to track the extent of DF. Pall Cadence (TM) inline concentrators with Delta 30 kD regenerated cellulose membranes were used in the three stages to achieve high conversion in a single pass. The three-stage system showed stable operation with >99.9% vitamin B-12 removal and a minimal increase in pressure over the full 24 hr. Modules were effectively cleaned using sodium hydroxide, with nearly complete recovery of water permeability. A simple economic analysis was presented that accounts for the trade-offs between quantity of buffer used and membrane costs for this type of countercurrent staged DF process. The results provide important insights to the design and operation of a continuous process for antibody formulation.
引用
收藏
页数:6
相关论文
共 50 条
  • [31] Multistage countercurrent extractor using vortex rings
    Latto, B.
    Ho, S.K.
    Rama Rao, N.V.
    Baird, M.H.I.
    Chemical Engineering Research and Design, 1995, 73 (A1): : 45 - 48
  • [32] MULTISTAGE COUNTERCURRENT EXTRACTOR USING VORTEX RINGS
    LATTO, B
    HO, SK
    RAO, NVR
    BAIRD, MHI
    CHEMICAL ENGINEERING RESEARCH & DESIGN, 1995, 73 (A1): : 45 - 48
  • [33] Experimental investigation of continuous multistage countercurrent crystallizer for separation P-nitrochlorobenzene and O-nitrochlorobenzene
    Xiao, Wenlong
    Huang, Binggui
    Li, Yonglin
    Yi, Zhengming
    SEPARATION AND PURIFICATION TECHNOLOGY, 2021, 267
  • [34] YIELD AND PURIFICATION IN MULTISTAGE COUNTERCURRENT SEPARATION SYSTEMS
    BOYDE, TRC
    SPENCER, CB
    SEPARATION SCIENCE AND TECHNOLOGY, 1979, 14 (02) : 163 - 165
  • [35] KINETICS OF MULTISTAGE COUNTERCURRENT WASHING OF CELLULOSE PULP
    GLUSHCHENKO, AA
    KOGAN, VB
    BUSHMELEV, VA
    JOURNAL OF APPLIED CHEMISTRY OF THE USSR, 1985, 58 (06): : 1308 - 1310
  • [36] Optimization of countercurrent multistage processes of extraction separation
    Skachkov, VS
    THEORETICAL FOUNDATIONS OF CHEMICAL ENGINEERING, 1998, 32 (03) : 270 - 274
  • [37] DYNAMIC SIMULATION FOR A MULTISTAGE COUNTERCURRENT EXTRACTION PROCESS
    董文葆
    阎和信
    张辽生
    Journal of Chemical Industry and Engineering, 1989, (01) : 134 - 146
  • [38] Multistage Countercurrent Crystallization for the Separation of Solid Solutions
    Muenzberg, Stephan
    Lorenz, Heike
    Seidel-Morgenstern, Andreas
    CHEMICAL ENGINEERING & TECHNOLOGY, 2016, 39 (07) : 1242 - 1250
  • [39] MULTISTAGE COUNTERCURRENT ELECTRODIALYSIS SEPARATION OF LITHIUM ISOTOPES
    MOSKVIN, L
    GURSKII, VS
    GRIGOREV, GL
    SOVIET RADIOCHEMISTRY, 1980, 22 (03): : 342 - 345
  • [40] Recent advances in Monoclonal antibodies based formulation used in the management of CRC
    Mehla, Neeraj
    Verma, Surender
    Bhan, Priyanka
    Vashist, Kamal
    JOURNAL OF PHARMACEUTICAL NEGATIVE RESULTS, 2022, 13 : 324 - 338