Zeolites are effective ROS-scavengers in vitro

► Zeolites are able to reduce in vitro the effects of ROS on the production of IMA®. ► No saturation of the respective zeolite active sites occurred. ► Fe 3+ within the zeolites channels plays a major role in HO deactivation process. We report on the use of zeolites to limit the effects of reactive...

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Veröffentlicht in:Biochemical and biophysical research communications 2011-07, Vol.410 (3), p.478-483
Hauptverfasser: Pellegrino, Perrine, Mallet, Bernard, Delliaux, Stéphane, Jammes, Yves, Guieu, Regis, Schäf, Oliver
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container_end_page 483
container_issue 3
container_start_page 478
container_title Biochemical and biophysical research communications
container_volume 410
creator Pellegrino, Perrine
Mallet, Bernard
Delliaux, Stéphane
Jammes, Yves
Guieu, Regis
Schäf, Oliver
description ► Zeolites are able to reduce in vitro the effects of ROS on the production of IMA®. ► No saturation of the respective zeolite active sites occurred. ► Fe 3+ within the zeolites channels plays a major role in HO deactivation process. We report on the use of zeolites to limit the effects of reactive oxygen species (ROS) on human albumin under in vitro conditions. Zeolites of different structure type, channel size, channel polarity, and charge-compensating cation were screened for the elimination of ROS, notably HO , resulting from the Fenton reaction. A test based on ischemia-modified albumin (IMA) was used as a marker to monitor the activity of HO after co-exposure of human serum to these zeolites. Two commercial zeolites, faujasite (FAU 13×, channel opening 0.74 × 0.74 nm with Na + as charge-compensating cation) and ferrierite (FER, channel opening 0.54 × 0.42 nm with H + as charge-compensating cation), were found to reduce IMA formation by more than 65% due to removal of HO relative to reference values. It was established that partial ion exchange of the zeolites’ respective charge-compensating cation vs. Fe 3+ implicated in the Fenton reaction plays a major role in HO deactivation process. Moreover, our results show that no saturation of the respective zeolite active sites occurred. This is possible only when ROS are actively converted to water molecules within the zeolite void system, which generates H + ion transport. Because zeolites cannot be administered in blood, their use in medicine should be limited to extra corporeal circuits. Zeolites could be of use during cardiopulmonary bypass or hemodialysis procedures.
doi_str_mv 10.1016/j.bbrc.2011.06.002
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We report on the use of zeolites to limit the effects of reactive oxygen species (ROS) on human albumin under in vitro conditions. Zeolites of different structure type, channel size, channel polarity, and charge-compensating cation were screened for the elimination of ROS, notably HO , resulting from the Fenton reaction. A test based on ischemia-modified albumin (IMA) was used as a marker to monitor the activity of HO after co-exposure of human serum to these zeolites. Two commercial zeolites, faujasite (FAU 13×, channel opening 0.74 × 0.74 nm with Na + as charge-compensating cation) and ferrierite (FER, channel opening 0.54 × 0.42 nm with H + as charge-compensating cation), were found to reduce IMA formation by more than 65% due to removal of HO relative to reference values. It was established that partial ion exchange of the zeolites’ respective charge-compensating cation vs. Fe 3+ implicated in the Fenton reaction plays a major role in HO deactivation process. 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subjects Fenton reaction
Free Radical Scavengers - pharmacology
Humans
Ischemia - metabolism
Ischemia modified albumin
Reactive Oxygen Species - antagonists & inhibitors
Reactive Oxygen Species - metabolism
ROS-deactivation
Serum Albumin - metabolism
Zeolites
Zeolites - chemistry
Zeolites - pharmacology
title Zeolites are effective ROS-scavengers in vitro
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