Issue
Korean Journal of Chemical Engineering,
Vol.18, No.2, 149-158, 2001
Optimization of Large-Scale Chromatography of Proteins
Protein chromatography is a very complex process based on a combination of thermodynamic, kinetic and mass transport phenomena. By virtue of their complicated and delicate surface structures, the behaviour of proteins on various chromatographic media is not easy to predict. Together with the fact that the majority of the chromatographic media for proteins available today are not very well characterized with regard to their detailed chemical and physical surface structures, protein chromatography still has to be regarded as a predominantly empirical science. I.e. the optimization of separation conditions can only be performed by experiments in the laboratory. The scaling-up is then accomplished primarily by increasing the column diameter. This has been shown work well for column diameters up to at least 1,400 mm. The paper will also deal with the characteristics of the most important protein separation media, silica based, polystyrene based and agarose based, and with how to best optimize the conditions for column productivity, both for adsorption types of chromatography and for gel filtration.
[References]
  1. Ackers GK, Steere RL, Biochim. Biophys. Acta, 59, 137, 1962
  2. Amsterdam A, Er-el Z, Shaltiel S, Arch. Biochem. Biophys., 171, 673, 1975
  3. Arnott S, Fulmer A, Scott WE, Dea ICM, Moorhouse R, Rees DA, J. Mol. Biol., 90, 269, 1974
  4. Arve B, Pharmacia LKB Biotechnology AB, unpublished data.
  5. As general references on large scale chromatography the following books and chapter, respectively, are recommended reading: Handbook of Process Chromatography, G. Sofer and L. Hagel, Academic Press (1997); Process Chromatography-A Practical Guide, G. Sofer and LE Nystrom, Academic Press, 1989; Process Chromatography-A Guide to Validation, G. Sofer and Lars-Erik Nystrom, Academic Press, 1991; Large-scale Chromatography of Proteins, JC Janson and P. Hedman, in A. Fiechter (ed.) Advances in Biochemical Engineering, Springer Verlag, 25, 43, 1982
  6. Berglof JH, Eriksson S, Biotechnology of Plasma Proteins, Stolz, J.F. and Rivat C., (Eds.), Colloque INSERM, 175, 201, 1989
  7. Berglof JH, Eriksson S, Andersson I, "Develop. Biol. Standard," S. Karger, ed., Basel, 67, 25, 1987
  8. Hagel L, Janson JC, Chromatography, Heftmann, E. (ed.), Elsevier, 5(th) edition, A267, 1992
  9. Hjerten S, Arch. Biochem. Biophys., 79, 393, 1964
  10. Iler RK, "The Chemistry of Silica," Wiley, New York, 1979
  11. Kroeff EP, Owens RA, Campbell EL, Johnson RD, Marks HI, J. Chromatogr., 461, 45, 1989
  12. Large-scale chromatography of proteins, JC Janson, and P. Hedman, in A. Fiechter (ed.) Advances in Biochemical Engineering, Springer Verlag, 25, 43, 1982
  13. Linden T, Ljunglof A, Kula MR, Thommes J, Biotechnol. Bioeng., 65(6), 622, 1999
  14. Ljunglof A, Bergvall P, Bhikhabhai R, Hjorth R, J. Chromatogr. A, 844, 129, 1999
  15. Ljunglof A, Larsson M, Knuuttila KG, Lindgren J, J. Chromatogr. A, 893, 235, 2000
  16. Ljunglof A, Thommes J, J. Chromatogr. A, 813, 387, 1998
  17. Naveh D, Biopharm, 5, 28, 1990
  18. Porath J, Flodin P, Nature, 183, 1657, 1959
  19. Porath J, Janson JC, Laas T, J. Chromatogr., 60, 167, 1971
  20. Porath J, Laas T, Janson JC, J. Chromatogr., 103, 49, 1975
  21. Process Chromatography-A Guide to Validation, G. Sofer and Lars-Erik Nystrom, Academic Press, 1991
  22. Process Chromatography-A Practical Guide, G. Sofer and LE Nystrom, Academic Press, 1989
  23. Ugelstad J, Soderberg L, Berge A, Bergstrom J, Nature, 303, 95, 1983