Review: Lipid and myoglobin oxidations in muscle foods

Lipid oxidation and myoglobin oxidation in muscle foods occur in a concurrent manner and each process appears to enhance the other. During oxidation of oxymyoglobin, both superoxide anion and hydrogen peroxide are produced and further react with iron to produce hydroxyl radical. The hydroxyl radical...

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Main Author: Manat Chaijan
Format: Article
Language:English
Published: Prince of Songkla University 2008-01-01
Series:Songklanakarin Journal of Science and Technology (SJST)
Subjects:
Online Access:http://www.sjst.psu.ac.th/ejournal/journal/30-1/0125-3395-30-1-47-53.pdf
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spelling doaj-92c283df678e425b90727d3088be053d2020-11-24T22:57:03ZengPrince of Songkla UniversitySongklanakarin Journal of Science and Technology (SJST)0125-33952008-01-013014753Review: Lipid and myoglobin oxidations in muscle foodsManat ChaijanLipid oxidation and myoglobin oxidation in muscle foods occur in a concurrent manner and each process appears to enhance the other. During oxidation of oxymyoglobin, both superoxide anion and hydrogen peroxide are produced and further react with iron to produce hydroxyl radical. The hydroxyl radical has the ability to penetrate into the hydrophobic lipid region and hence facilitates lipid oxidation. The prooxidant effect of oxymyoglobin on lipid oxidation is concentrationdependent. At equimolar concentrations, oxymyoglobin shows higher prooxidative activity towards lipid than metmyoglobin. However, the catalytic activity of metmyoglobin is promoted by hydrogen peroxide. The reaction between hydrogen peroxide and metmyoglobin results in the formation of two active hypervalent myoglobin species, perferrylmyoglobin and ferrylmyoglobin, which are responsible for lipid oxidation. Additionally, lipid oxidation results in a wide range of aldehyde products, which are reported to induce the oxidation of oxymyoglobin. Metmyoglobin formation is generally greater in the presence of unsaturated aldehydes than their saturated counterparts of equivalent carbon chain length. In addition, increasing chain length of aldehydes, from hexenal through nonenal, results in the increased metmyoglobin formation. Moreover, aldehydes alter myoglobin redox stability by increasing oxymyoglobin oxidation, decreasing the metmyoglobin reduction via enzymatic process, and enhance the prooxidant activity of metmyoglobin. Therefore, the oxidation of both lipid and myoglobin directly affect the quality and acceptability of muscle foods and the lowering of such a phenomenon can enhance the shelf-life stability of those foods.http://www.sjst.psu.ac.th/ejournal/journal/30-1/0125-3395-30-1-47-53.pdflipidmyoglobinoxidationmuscle foods
collection DOAJ
language English
format Article
sources DOAJ
author Manat Chaijan
spellingShingle Manat Chaijan
Review: Lipid and myoglobin oxidations in muscle foods
Songklanakarin Journal of Science and Technology (SJST)
lipid
myoglobin
oxidation
muscle foods
author_facet Manat Chaijan
author_sort Manat Chaijan
title Review: Lipid and myoglobin oxidations in muscle foods
title_short Review: Lipid and myoglobin oxidations in muscle foods
title_full Review: Lipid and myoglobin oxidations in muscle foods
title_fullStr Review: Lipid and myoglobin oxidations in muscle foods
title_full_unstemmed Review: Lipid and myoglobin oxidations in muscle foods
title_sort review: lipid and myoglobin oxidations in muscle foods
publisher Prince of Songkla University
series Songklanakarin Journal of Science and Technology (SJST)
issn 0125-3395
publishDate 2008-01-01
description Lipid oxidation and myoglobin oxidation in muscle foods occur in a concurrent manner and each process appears to enhance the other. During oxidation of oxymyoglobin, both superoxide anion and hydrogen peroxide are produced and further react with iron to produce hydroxyl radical. The hydroxyl radical has the ability to penetrate into the hydrophobic lipid region and hence facilitates lipid oxidation. The prooxidant effect of oxymyoglobin on lipid oxidation is concentrationdependent. At equimolar concentrations, oxymyoglobin shows higher prooxidative activity towards lipid than metmyoglobin. However, the catalytic activity of metmyoglobin is promoted by hydrogen peroxide. The reaction between hydrogen peroxide and metmyoglobin results in the formation of two active hypervalent myoglobin species, perferrylmyoglobin and ferrylmyoglobin, which are responsible for lipid oxidation. Additionally, lipid oxidation results in a wide range of aldehyde products, which are reported to induce the oxidation of oxymyoglobin. Metmyoglobin formation is generally greater in the presence of unsaturated aldehydes than their saturated counterparts of equivalent carbon chain length. In addition, increasing chain length of aldehydes, from hexenal through nonenal, results in the increased metmyoglobin formation. Moreover, aldehydes alter myoglobin redox stability by increasing oxymyoglobin oxidation, decreasing the metmyoglobin reduction via enzymatic process, and enhance the prooxidant activity of metmyoglobin. Therefore, the oxidation of both lipid and myoglobin directly affect the quality and acceptability of muscle foods and the lowering of such a phenomenon can enhance the shelf-life stability of those foods.
topic lipid
myoglobin
oxidation
muscle foods
url http://www.sjst.psu.ac.th/ejournal/journal/30-1/0125-3395-30-1-47-53.pdf
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