Negative chromatography: Progress, applications and future perspectives

•Reviews the current progress of negative chromatography (NC) and its application.•Product flows through the negative chromatographic column.•The performance of NC is independent of adsorbent binding capacity.•NC appears as an alternative to conventional chromatography.•NC has been successfully appl...

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Veröffentlicht in:Process biochemistry (1991) 2014-06, Vol.49 (6), p.1005-1011
Hauptverfasser: Lee, Micky Fu Xiang, Chan, Eng Seng, Tey, Beng Ti
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container_end_page 1011
container_issue 6
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container_title Process biochemistry (1991)
container_volume 49
creator Lee, Micky Fu Xiang
Chan, Eng Seng
Tey, Beng Ti
description •Reviews the current progress of negative chromatography (NC) and its application.•Product flows through the negative chromatographic column.•The performance of NC is independent of adsorbent binding capacity.•NC appears as an alternative to conventional chromatography.•NC has been successfully applied to purify various therapeutic proteins. In negative chromatography, the impurities bind on the adsorbent, and the product is allowed to flow through the chromatographic column. Negative chromatography is an alternative to positive chromatography under certain circumstances and has been used to purify various biomolecules. For this review, a detailed survey of the performance of reported studies on negative chromatography was conducted. The applications of negative chromatography in the capture and intermediate purification steps for biomolecules (e.g., plasmid DNA, antibodies, enzymes, hemoglobin, virus particles and cells) are reviewed. The negative chromatographic adsorbents adsorb the impurities through surface charge, hydrophobic interaction at specific sites on the surface, hydrophobic interaction, hydrogen bonding and functional groups. Examples of applications of negative chromatography according to the type of chromatography matrix used are summarized and discussed. In addition, the effects of operating conditions (initial protein concentration, buffer ions, pH and salt concentration) are discussed, and the criteria for choosing negative or positive chromatography are summarized. The literature survey showed that there will be future limitations and challenges ahead in implementation of negative chromatography. Possible solutions to the limitations and challenges of negative chromatography and future trends for developing negative chromatography are discussed.
doi_str_mv 10.1016/j.procbio.2014.02.018
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In addition, the effects of operating conditions (initial protein concentration, buffer ions, pH and salt concentration) are discussed, and the criteria for choosing negative or positive chromatography are summarized. The literature survey showed that there will be future limitations and challenges ahead in implementation of negative chromatography. 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subjects Adsorbent
Adsorbents
Biomolecules
Chromatography
Criteria
Downstream bottleneck
Enzymes
Flow-through chromatography
Hemoglobin
Impurities
Literature reviews
Negative chromatography
Protein purification
Recombinant protein
title Negative chromatography: Progress, applications and future perspectives
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