In‐column bonded phase polymerization for improved packing uniformity

It is difficult to pack chromatographic particles having polymeric‐bonded phases because solvents used for making a stable slurry cause the polymer layer to swell. Growth of the polymer inside the column (in situ) after packing was investigated and compared with conventional, ex situ polymer growth....

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Veröffentlicht in:Journal of separation science 2017-05, Vol.40 (10), p.2170-2177
Hauptverfasser: Huckabee, Alexis G., Yerneni, Charu, Jacobson, Rachel E., Alzate, Edwin J., Chen, Tse‐Hong, Wirth, Mary J.
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container_end_page 2177
container_issue 10
container_start_page 2170
container_title Journal of separation science
container_volume 40
creator Huckabee, Alexis G.
Yerneni, Charu
Jacobson, Rachel E.
Alzate, Edwin J.
Chen, Tse‐Hong
Wirth, Mary J.
description It is difficult to pack chromatographic particles having polymeric‐bonded phases because solvents used for making a stable slurry cause the polymer layer to swell. Growth of the polymer inside the column (in situ) after packing was investigated and compared with conventional, ex situ polymer growth. The method of activators generated by electron transfer, along with atom‐transfer radical polymerization, enabled polymerization under ambient conditions. Nonporous, 0.62 μm silica particles with silane initiators were used. Polyacrylamide films with a hydrated thickness of 23 nm in 75:25 water/isopropanol grew in 55 min for both in situ and ex situ preparations, and the same carbon coverage was observed. Higher chromatographic resolution and better column‐to‐column reproducibility were observed for in situ polymer growth, as evaluated by hydrophilic interaction liquid chromatography for the model glycoprotein, ribonuclease B. In situ polymer growth was also found to give lower eddy diffusion, as shown by a narrower peak width for injected acetonitrile in 50:50 acetonitrile/water. When columns were packed more loosely, bed collapse occurred quickly for ex situ, but not for in situ, polymer growth. The higher resolution and stability for in situ polymer growth is explained by packing with hard, rather than soft, contacts between particles.
doi_str_mv 10.1002/jssc.201601376
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Growth of the polymer inside the column (in situ) after packing was investigated and compared with conventional, ex situ polymer growth. The method of activators generated by electron transfer, along with atom‐transfer radical polymerization, enabled polymerization under ambient conditions. Nonporous, 0.62 μm silica particles with silane initiators were used. Polyacrylamide films with a hydrated thickness of 23 nm in 75:25 water/isopropanol grew in 55 min for both in situ and ex situ preparations, and the same carbon coverage was observed. Higher chromatographic resolution and better column‐to‐column reproducibility were observed for in situ polymer growth, as evaluated by hydrophilic interaction liquid chromatography for the model glycoprotein, ribonuclease B. In situ polymer growth was also found to give lower eddy diffusion, as shown by a narrower peak width for injected acetonitrile in 50:50 acetonitrile/water. When columns were packed more loosely, bed collapse occurred quickly for ex situ, but not for in situ, polymer growth. 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When columns were packed more loosely, bed collapse occurred quickly for ex situ, but not for in situ, polymer growth. 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source Wiley Online Library Journals Frontfile Complete
subjects Acetonitrile
carbon
Chromatography
Column chromatography
Electron transfer
Glycoproteins
hydrophilic interaction chromatography
hydrophilic interaction liquid chromatography
isopropyl alcohol
Liquid chromatography
packing
Polyacrylamide
polymer
Polymerization
Polymers
ribonucleases
silane
silica
slurries
solvents
stationary phases
Thickness
title In‐column bonded phase polymerization for improved packing uniformity
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