TY - JOUR
T1 - FT-ICR-MS reveals the molecular imprints of the brewing process
AU - Pieczonka, Stefan A.
AU - Zarnkow, Martin
AU - Ampenberger, Friedrich
AU - Gastl, Martina
AU - Rychlik, Michael
AU - Schmitt-Kopplin, Philippe
N1 - Publisher Copyright:
Copyright © 2023 Pieczonka, Zarnkow, Ampenberger, Gastl, Rychlik and Schmitt-Kopplin.
PY - 2023
Y1 - 2023
N2 - The study of fermentation and brewing has a long history of pioneering discoveries that continue to influence modern industrial food production. Since then, numerous research endeavors have yielded conventional criteria that guide contemporary brewing practices. However, the intricate open challenges faced today necessitate a more exhaustive understanding of the process at the molecular scale. We have developed an ultra-high-resolution mass spectrometric analysis (FT-ICR-MS) of the brewing process that can rapidly and comprehensively resolve thousands of molecules. This approach allows us to track molecular fluctuation during brewing at the level of chemical compositions. Employing biological triplicates, our investigation of two brewing lines that are otherwise identical except for the malt used revealed over 8,000 molecular descriptors of the brewing process. Metabolite imprints of both the similarities and differences arising from deviating malting temperatures were visualized. Additionally, we translated traditional brewing attributes such as the EBC-value, free amino nitrogen, pH-value, and concentration curves of specific molecules, into highly correlative molecular patterns consisting of hundreds of metabolites. These in-depth molecular imprints provide a better understanding of the molecular circumstances leading to various changes throughout the brewing process. Such chemical maps go beyond the observation of traditional brewing attributes and are of great significance in the investigation strategies of current open challenges in brewing research. The molecular base of knowledge, along with advancements in technological and data integration schemes, can facilitate the efficient monitoring of brewing and other productions processes.
AB - The study of fermentation and brewing has a long history of pioneering discoveries that continue to influence modern industrial food production. Since then, numerous research endeavors have yielded conventional criteria that guide contemporary brewing practices. However, the intricate open challenges faced today necessitate a more exhaustive understanding of the process at the molecular scale. We have developed an ultra-high-resolution mass spectrometric analysis (FT-ICR-MS) of the brewing process that can rapidly and comprehensively resolve thousands of molecules. This approach allows us to track molecular fluctuation during brewing at the level of chemical compositions. Employing biological triplicates, our investigation of two brewing lines that are otherwise identical except for the malt used revealed over 8,000 molecular descriptors of the brewing process. Metabolite imprints of both the similarities and differences arising from deviating malting temperatures were visualized. Additionally, we translated traditional brewing attributes such as the EBC-value, free amino nitrogen, pH-value, and concentration curves of specific molecules, into highly correlative molecular patterns consisting of hundreds of metabolites. These in-depth molecular imprints provide a better understanding of the molecular circumstances leading to various changes throughout the brewing process. Such chemical maps go beyond the observation of traditional brewing attributes and are of great significance in the investigation strategies of current open challenges in brewing research. The molecular base of knowledge, along with advancements in technological and data integration schemes, can facilitate the efficient monitoring of brewing and other productions processes.
KW - FT-ICR-MS
KW - Maillard reaction
KW - beer
KW - brewing process
KW - metabolomics
KW - molecular profiles
KW - multivariate statistics
UR - http://www.scopus.com/inward/record.url?scp=85173786328&partnerID=8YFLogxK
U2 - 10.3389/fnut.2023.1243503
DO - 10.3389/fnut.2023.1243503
M3 - Article
AN - SCOPUS:85173786328
SN - 2296-861X
VL - 10
JO - Frontiers in Nutrition
JF - Frontiers in Nutrition
M1 - 1243503
ER -