TY - JOUR
T1 - Dry fractionation to produce functional fractions from mung bean, yellow pea and cowpea flour
AU - Schlangen, Miek
AU - Taghian Dinani, Somayeh
AU - Schutyser, Maarten A.I.
AU - van der Goot, Atze Jan
N1 - Publisher Copyright:
© 2022 The Author(s)
PY - 2022/6
Y1 - 2022/6
N2 - Dry fractionation of mung bean, yellow pea, and cowpea was performed to investigate the compositions and functional properties of the obtained fractions. Dry fractionation consisted of milling and subsequent air classification using three air classifier wheel speeds. Water holding capacity, gelation, and rheological properties of all fractions were studied. Separation between protein and starch granules was successfully performed by air classifying, as visualized with SEM images. Protein contents in fine fractions ranged from 42% to 58% (w/w), which was dependent on classifier wheel speed and material source. The correlation between water holding capacity and protein content was dependent on material source. Gelation of fine fractions occurred at lower concentrations than flours and coarse fractions. Fine fractions of all materials formed gels with higher elastic modulus (G') than the flour and coarse fractions, while the flour and coarse fractions formed more solid-like gels (lower tan δ). Industrial relevance: The need for functional plant protein ingredients for food applications is growing continuously. It is thus important to study sustainable methods for plant protein extraction. Dry fractionation is often considered an efficient alternative to the conventional wet fractionation process, that preserves the native functionality of the proteins in addition. For the application of ingredients produced from dry fractionation in food products, it is important to understand their functional properties. Therefore, the functional properties of dry fractionated ingredients produced from three different legumes are evaluated in this manuscript.
AB - Dry fractionation of mung bean, yellow pea, and cowpea was performed to investigate the compositions and functional properties of the obtained fractions. Dry fractionation consisted of milling and subsequent air classification using three air classifier wheel speeds. Water holding capacity, gelation, and rheological properties of all fractions were studied. Separation between protein and starch granules was successfully performed by air classifying, as visualized with SEM images. Protein contents in fine fractions ranged from 42% to 58% (w/w), which was dependent on classifier wheel speed and material source. The correlation between water holding capacity and protein content was dependent on material source. Gelation of fine fractions occurred at lower concentrations than flours and coarse fractions. Fine fractions of all materials formed gels with higher elastic modulus (G') than the flour and coarse fractions, while the flour and coarse fractions formed more solid-like gels (lower tan δ). Industrial relevance: The need for functional plant protein ingredients for food applications is growing continuously. It is thus important to study sustainable methods for plant protein extraction. Dry fractionation is often considered an efficient alternative to the conventional wet fractionation process, that preserves the native functionality of the proteins in addition. For the application of ingredients produced from dry fractionation in food products, it is important to understand their functional properties. Therefore, the functional properties of dry fractionated ingredients produced from three different legumes are evaluated in this manuscript.
KW - Cowpea
KW - Dry fractionation
KW - Fine and coarse fractions
KW - Mung bean
KW - Rheological properties
KW - Yellow pea
U2 - 10.1016/j.ifset.2022.103018
DO - 10.1016/j.ifset.2022.103018
M3 - Article
AN - SCOPUS:85129589600
VL - 78
JO - Innovative Food Science and Emerging Technologies
JF - Innovative Food Science and Emerging Technologies
SN - 1466-8564
M1 - 103018
ER -