Ultrasonic and enzymatic processing for optimizing gelation and functional properties of black bean protein isolate

This study investigates the synergistic effects of ultrasonic and enzymatic treatments on the gelation properties of black bean protein isolate (BBPI). We hypothesize that this combined approach will enhance gelation by promoting structural modifications and molecular interactions. The results show that the combined treatment of ultrasound and enzymes effectively reduced the molecular weight of BBPI, facilitating protein dissociation and structural refolding. This process resulted in increased surface hydrophobicity, a significant reduction in particle size (by 85%), an increase in the absolute value of the zeta potential, and a 60% enhancement in solubility. These modifications led to a gel with improved viscoelasticity, increased water-holding capacity, and enhanced gel strength and springiness, which reached 5.11 N and 4.73 mm, respectively, while forming a more compact three-dimensional network structure. These findings suggest a promising strategy for improving BBPI for food applications, particularly in plant-based products, by enhancing its functional properties and expanding its industrial potential.

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Publication Details

Journal
Journal of Food Science
Published
2025-07-01
DOI
https://doi.org/10.1111/1750-3841.70207
Citations
2
Primary Topic
Proteins in Food Systems
Type
article
Field-Weighted Citation Impact
2.32
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article

Ultrasonic and enzymatic processing for optimizing gelation and functional properties of black bean protein isolate

Aihua Zhai, Xuechun Wang, Shixin Wang, Ze Yin
2 citations
Journal of Food Science
Proteins in Food Systems
2.32
article

Ultrasonic and enzymatic processing for optimizing gelation and functional properties of black bean protein isolate

Aihua Zhai, Xuechun Wang, Shixin Wang, Ze Yin
article en
2 citations

Abstract

This study investigates the synergistic effects of ultrasonic and enzymatic treatments on the gelation properties of black bean protein isolate (BBPI). We hypothesize that this combined approach will enhance gelation by promoting structural modifications and molecular interactions. The results show that the combined treatment of ultrasound and enzymes effectively reduced the molecular weight of BBPI, facilitating protein dissociation and structural refolding. This process resulted in increased surface hydrophobicity, a significant reduction in particle size (by 85%), an increase in the absolute value of the zeta potential, and a 60% enhancement in solubility. These modifications led to a gel with improved viscoelasticity, increased water-holding capacity, and enhanced gel strength and springiness, which reached 5.11 N and 4.73 mm, respectively, while forming a more compact three-dimensional network structure. These findings suggest a promising strategy for improving BBPI for food applications, particularly in plant-based products, by enhancing its functional properties and expanding its industrial potential.

Journal of Food ScienceVol. 90(7)
Heilongjiang Bayi Agricultural University (CN)
Openalex Percentile: Top 12%
Proteins in Food Systems
2.32
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