Use of the 1H NMR technique to describe the kneading step of wholewheat dough: The effect of kneading time and total water content

•The 1H NMR technique monitored the kneading step of a wholewheat flour (WWF) dough.•The effect of the kneading time and the total water content was investigated.•The 1H NMR signals were interpreted as biopolymer physical/chemical transformations.•Different water contents changed the proton mobility...

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Veröffentlicht in:Food chemistry 2021-02, Vol.338, p.128120-128120, Article 128120
Hauptverfasser: Parenti, Ottavia, Guerrini, Lorenzo, Zanoni, Bruno, Marchini, Mia, Tuccio, Maria Grazia, Carini, Eleonora
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container_start_page 128120
container_title Food chemistry
container_volume 338
creator Parenti, Ottavia
Guerrini, Lorenzo
Zanoni, Bruno
Marchini, Mia
Tuccio, Maria Grazia
Carini, Eleonora
description •The 1H NMR technique monitored the kneading step of a wholewheat flour (WWF) dough.•The effect of the kneading time and the total water content was investigated.•The 1H NMR signals were interpreted as biopolymer physical/chemical transformations.•Different water contents changed the proton mobility and dynamics of WWF doughs.•The 1H NMR technique is able to monitor dough molecular evolution during kneading. The kneading step of wholewheat flour (WWF) dough was monitored using low-resolution 1H nuclear magnetic resonance (NMR). The tested variables were kneading time and total water content. Two 1H Free induction decay (FID) (A and B) and four 1H T2 Car-Purcell-Meiboom-Gill (CPMG) (C, D, E and F) proton populations were observed and the attribution to the different proton domains was made based on the literature and data acquisition. Kneading time significantly increased the mobility and the relative abundance of popA, the relative abundance and strength of protons of popC, D and E, while significantly reducing the relative amount of popF and increasing its mobility. This evolution of the proton populations during kneading was interpreted as chemical/physical transformations of the flour constituents. The use of WWF may reveal the changes in molecular dynamics underlying the higher water requirements of unrefined doughs, often associated with improved bread quality.
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subjects Mixing step
Molecular mobility
Unrefined flour
Wheat dough
title Use of the 1H NMR technique to describe the kneading step of wholewheat dough: The effect of kneading time and total water content
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