Evolution of Complex Maillard Chemical Reactions, Resolved in Time

Abstract In this study, we monitored the thermal formation of early ribose-glycine Maillard reaction products over time by ion cyclotron resonance mass spectrometry. Here, we considered sugar decomposition (caramelization) apart from compounds that could only be produced in the presence of the amino...

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Main Authors: Daniel Hemmler, Chloé Roullier-Gall, James W. Marshall, Michael Rychlik, Andrew J. Taylor, Philippe Schmitt-Kopplin
Format: Article
Language:English
Published: Nature Publishing Group 2017-06-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-017-03691-z
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spelling doaj-7da203bb16324579bccc758a51afd3a42020-12-08T01:27:54ZengNature Publishing GroupScientific Reports2045-23222017-06-01711610.1038/s41598-017-03691-zEvolution of Complex Maillard Chemical Reactions, Resolved in TimeDaniel Hemmler0Chloé Roullier-Gall1James W. Marshall2Michael Rychlik3Andrew J. Taylor4Philippe Schmitt-Kopplin5Comprehensive Foodomics Platform, Analytical Food Chemistry, Technical University MunichComprehensive Foodomics Platform, Analytical Food Chemistry, Technical University MunichThe Waltham Centre for Pet Nutrition, Mars Petcare UK, Waltham-on-the-WoldsComprehensive Foodomics Platform, Analytical Food Chemistry, Technical University MunichThe Waltham Centre for Pet Nutrition, Mars Petcare UK, Waltham-on-the-WoldsComprehensive Foodomics Platform, Analytical Food Chemistry, Technical University MunichAbstract In this study, we monitored the thermal formation of early ribose-glycine Maillard reaction products over time by ion cyclotron resonance mass spectrometry. Here, we considered sugar decomposition (caramelization) apart from compounds that could only be produced in the presence of the amino acid. More than 300 intermediates as a result of the two initial reactants were found after ten hours (100 °C) to participate in the interplay of the Maillard reaction cascade. Despite the large numerical variety the majority of intermediates follow simple and repetitive reaction patterns. Dehydration, carbonyl cleavage, and redox reactions turned out to have a large impact on the diversity the Maillard reaction causes. Although the Amadori breakdown is considered as the main Maillard reaction pathway, other reactive intermediates, often of higher molecular weight than the Amadori rearrangement product, contribute to a large extent to the multitude of intermediates we observed.https://doi.org/10.1038/s41598-017-03691-z
collection DOAJ
language English
format Article
sources DOAJ
author Daniel Hemmler
Chloé Roullier-Gall
James W. Marshall
Michael Rychlik
Andrew J. Taylor
Philippe Schmitt-Kopplin
spellingShingle Daniel Hemmler
Chloé Roullier-Gall
James W. Marshall
Michael Rychlik
Andrew J. Taylor
Philippe Schmitt-Kopplin
Evolution of Complex Maillard Chemical Reactions, Resolved in Time
Scientific Reports
author_facet Daniel Hemmler
Chloé Roullier-Gall
James W. Marshall
Michael Rychlik
Andrew J. Taylor
Philippe Schmitt-Kopplin
author_sort Daniel Hemmler
title Evolution of Complex Maillard Chemical Reactions, Resolved in Time
title_short Evolution of Complex Maillard Chemical Reactions, Resolved in Time
title_full Evolution of Complex Maillard Chemical Reactions, Resolved in Time
title_fullStr Evolution of Complex Maillard Chemical Reactions, Resolved in Time
title_full_unstemmed Evolution of Complex Maillard Chemical Reactions, Resolved in Time
title_sort evolution of complex maillard chemical reactions, resolved in time
publisher Nature Publishing Group
series Scientific Reports
issn 2045-2322
publishDate 2017-06-01
description Abstract In this study, we monitored the thermal formation of early ribose-glycine Maillard reaction products over time by ion cyclotron resonance mass spectrometry. Here, we considered sugar decomposition (caramelization) apart from compounds that could only be produced in the presence of the amino acid. More than 300 intermediates as a result of the two initial reactants were found after ten hours (100 °C) to participate in the interplay of the Maillard reaction cascade. Despite the large numerical variety the majority of intermediates follow simple and repetitive reaction patterns. Dehydration, carbonyl cleavage, and redox reactions turned out to have a large impact on the diversity the Maillard reaction causes. Although the Amadori breakdown is considered as the main Maillard reaction pathway, other reactive intermediates, often of higher molecular weight than the Amadori rearrangement product, contribute to a large extent to the multitude of intermediates we observed.
url https://doi.org/10.1038/s41598-017-03691-z
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