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(Fenton Oxidation Reaction). Dihydrorhodamine Iron-Catalysed

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22.11.2018

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  • (Fenton Oxidation Reaction). Dihydrorhodamine Iron-Catalysed
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  • The iron oxidation state of most natural minerals such as goethite and as a chemically stable matrix to hold ferrous ions in the catalyzed oxidation of The cleavage products of the peroxidative and oxidative Fenton reaction are processed identically. . conversion of the nonfluorescent dye dihydrorhodamine (DHR). The cleavage products of the peroxidative and oxidative Fenton reaction are processed . Iron toxicity mainly relates to its involvement in the Fenton reaction and the conversion of the nonfluorescent dye dihydrorhodamine (DHR). . from superoxide in a reaction called the Fenton reaction, which is catalyzed by Fe 2+. Since this discovery, the iron catalyzed hydrogen peroxide has been called Fenton's reaction. Nowadays, the Fenton's reaction is used to treat a large variety of.

    (Fenton Oxidation Reaction). Dihydrorhodamine Iron-Catalysed

    Superoxide ions and transition metals act in a synergistic manner in the creation of free radical damage. From Wikipedia, the free encyclopedia. Generation and Chemical Implications, Chem. Pathologic Basis of Disease 7th ed. Retrieved from " https: Oxidizing agents Environmental chemistry Analytical reagents Free radicals.

    Pages with DOIs inactive since All articles with unsourced statements Articles with unsourced statements from October Views Read Edit View history. Much of the vascular and tissue injury observed in certain models of inflammation have been shown to be inhibited by either superoxide dismutase or NO synthase inhibitors, suggesting that both O and NO are important mediators of tissue injury and dysfunction 1 , 2 , 3 , 4 , 5 , 6.

    Indeed, this hypothesis has generated tremendous interest because it has provided a biochemical rationale to account for the remarkable but perplexing protective effects of intravenous administration of L-arginine analogs NO synthase inhibitors or superoxide dismutase in these pathophysiologic models of tissue injury and inflammation 1 , 2 , 3 , 4 , 5 , 6.

    Numerous studies have been published describing the physicochemical and cytotoxic properties of chemically synthesized ONOO 8 , 9 , 10 , 11 , 12 , 13 , However, there is a paucity of information quantitatively characterizing the interaction between O and NO under physiologic conditions. Thus, we have attempted to systematically quantify the interaction between NO and O in the absence or the presence of redox-active iron.

    Data obtained in the present study demonstrate that in the absence of iron-catalyzed reactions, simultaneous generation of equimolar fluxes of O and NO synergize to yield an oxidant or oxidants capable of oxidizing DHR to RH Fig. These data also confirm a previous report 31 that found that neither O , H O , nor NO per se is capable of oxidizing substantial amounts of DHR in the absence of redox active metals such as iron or hemoproteins.

    Indeed, decomposition of peroxynitrous acid to nitrate has been suggested to proceed via a rate-limiting isomerization reaction that yields a potent oxidizing agent capable of hydroxylating organic substrates 8. We found a similar pattern of hydroxylation of BA as observed for DHR oxidation in that equimolar fluxes 1.

    The latter possibility does not appear to be a major pathway because we did not observe dramatic inhibition of DHR oxidation by excess NO in the iron-containing system Fig. The former hypothesis appears to be the more viable explanation. Although the direct reaction of ONOOH with either NO or O has not been definitively demonstrated, it has been suggested to be thermodynamically possible 33 , Although reaction rates are not forthcoming from calculated thermodynamic values, the possibility of the interaction of ONOOH with NO or O is at least indicated.

    On the other hand, depending on the ratio of fluxes of O to NO, oxidation and hydroxylation reactions may be either enhanced or inhibited in the absence of iron Fig.

    Under conditions of limiting O flux, excess NO will instead be auto-oxidized in the presence of molecular oxygen-producing nitrogen oxides e. On the other hand, increased production of O at higher xanthine oxidase concentrations is concomitant with increased urate production a potent free radical scavenger.

    Whereas urate-mediated inhibition cannot be totally discounted, it apparently was not a significant factor at O fluxes below 1. As the ratio was increased further to 4. These data are reminiscent of those reported by Rubbo et al. As expected, generation of O and H O 1.

    The sequence of reactions involving NO and iron may proceed as follows: The efficiency of such interactions could explain the results in Fig. Indeed it is well known that NO binds under physiological conditions with ferrous heme containing compounds e.

    An alternative and more likely explanation for this dramatic inhibitory effect of NO may be that NO shunts O away from iron-catalyzed OH formation by the Fenton reaction and toward the formation of an oxidant e. Our data confirm and extend the results recently reported by Rubbo et al. Furthermore, these same investigators demonstrated that NO could partially inhibit ONOO -induced lipid peroxidation Two major physiological implications arise from our present study.

    Our data suggest that excess production of one radical over the other may act as an endogenous modulator of ONOO formation such that the steady state levels of this potent cytotoxic oxidant never accumulates above a certain amount. Indeed, the spontaneous acid-catalyzed decomposition of another potent oxidant, hypothiocyanous acid, is an example of autocatalytic regulation of oxidant formation Normally, there is little low molecular weight iron e. However, it is known that certain reductants e.

    In addition to ferritin, there is also a small but significant pool of low molecular weight iron chelate e. Studies by Deighton and Hider 43 have identified this low molecular weight iron chelate as a glutamate-iron complex molecular weight of that can easily exchange its iron with other more potent chelators. The timing of the superoxide production relative to the NO can be distinctly different in vivo and have a limited overlap under some immunological and pathophysiological conditions.

    For instance, superoxide formation of neutrophils reaches a flux 10 times higher than that of NO within the first few minutes after treatment with phorbol ester However, the flux of superoxide formed quickly subsides within an hour, whereas the NO production continues for several hours. The time overlap in which the flux of these two radicals is one to one is for a very limited time; therefore the amount of peroxynitrite formed is small.

    Conversely, cytokine-stimulated alveolar macrophage are thought to generate both NO and O at the same sustained rate for long period of time, implying that the oxidant formed may be intentionally held high in this specific cell line This switching between oxidation, hydroxylation, and nitrosation appears to be well orchestrated in the immune response to pathogens and appears to be critical in host defense.

    Although NO and superoxide can be generated from the same cell type and cytokine influence, kinetic considerations must be carefully examined to determine the reactive intermediates involved. The costs of publication of this article were defrayed in part by the payment of page charges. Section solely to indicate this fact. You'll be in good company. Journal of Lipid Research. Peroxynitrite, a potent cytotoxic oxidant formed by the reaction of nitric oxide with superoxide anion, and hydroxyl radical, formed in the iron-catalysed Fenton reaction, are important mediators of reperfusion injury.

    In in vitro studies, DNA single strand breakage, triggered by peroxynitrite or by hydroxyl radical, activates the nuclear enzyme poly ADP-ribose synthetase PARS , with consequent cytotoxic effects. At 60 min after reperfusion, animals were killed for histological examination and biochemical studies.

    Immunohistochemical examination demonstrated a marked increase in the immunoreactivity to nitrotyrosine, a specific 'footprint' of peroxynitrite, in the necrotic ileum in shocked rats, as measured at 60 min after the start of reperfusion.

    In addition, in ex vivo studies in aortic rings from shocked rats, we found reduced contractions to noradrenaline and reduced responsiveness to a relaxant effect to acetylcholine vascular hyporeactivity and endothelial dysfunction, respectively.

    Ten minutes of reperfusion, after 30 min of splanchnic artery ischaemia, resulted in a marked increase in epithelial permeability. There was a significant increase in PARS activity in the intestinal epithelial cells, as measured 10 min after reperfusion ex vivo. Also it significantly improved mean arterial blood pressure, improved contractile responsiveness to noradrenaline, enhanced the endothelium-dependent relaxations and reduced the reperfusion-induced increase in epithelial permeability.

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    pH effects on iron-catalyzed oxidation using Fenton's reagent. to gain insight into the reaction mechanism and speciation of the iron catalyst. Fenton's reagent is a solution of hydrogen peroxide with ferrous iron as a catalyst that is used to Iron(II) is oxidized by hydrogen peroxide to iron(III), forming a hydroxyl radical and a hydroxide ion in the process. Therefore, it may be appropriate to broadly discuss Fenton chemistry rather than a specific Fenton reaction. As mitochondria produce ATP by oxidative phosphorylation, ROS Iron is absorbed better in a relatively low iron states rather than in presence of good Fenton reaction is a common method of generating highly reactive hydroxyl radicals .. and its derivatives, scoloptein, homovanillic acid, DCFH, dihydrorhodamine

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    Comments

    svjatoii

    pH effects on iron-catalyzed oxidation using Fenton's reagent. to gain insight into the reaction mechanism and speciation of the iron catalyst.

    MenFromHell

    Fenton's reagent is a solution of hydrogen peroxide with ferrous iron as a catalyst that is used to Iron(II) is oxidized by hydrogen peroxide to iron(III), forming a hydroxyl radical and a hydroxide ion in the process. Therefore, it may be appropriate to broadly discuss Fenton chemistry rather than a specific Fenton reaction.

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