Research advances in aggregation mechanisms and regulatory strategies of common plant-derived proteins

Plant-derived proteins represent sustainable alternatives, yet controlling their aggregation in complex food matrices remains a key challenge. This paper systematically reviews how protein properties, environmental conditions, and processing parameters influence aggregation behavior of plant-derived protein. Furthermore, it summarizes various regulatory approaches—including self-assembly, macromolecular interactions, chemical methods, thermal, and physical treatments—highlighting their specific challenges and solutions. This paper suggests a synergistic strategy that integrates molecular self-assembly with the cooperative effects of biomacromolecules. This approach can regulate protein aggregation structures and improve interfacial stability. To address limitations in predicting aggregation kinetics, an AI-driven framework with machine learning enables precise simulation of multiscale structural evolution. This approach achieves nanoscale control of plant protein aggregates, improving emulsion stability under high oil-phase loading. Therefore, this review supports innovative applications of plant-derived proteins in meal-replacement emulsions and personalized nutrient delivery systems for precision nutrition.

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Publication Details

Journal
Agricultural Products Processing and Storage
Published
2026-11-09
DOI
https://doi.org/10.1007/s44462-026-00083-3
Primary Topic
Proteins in Food Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Research advances in aggregation mechanisms and regulatory strategies of common plant-derived proteins

Weidong Bai, Hao Dong, Liangbin Wang, Yanhong Luo et al.
Agricultural Products Processing and Storage
Proteins in Food Systems
article

Research advances in aggregation mechanisms and regulatory strategies of common plant-derived proteins

Weidong Bai, Hao Dong, Liangbin Wang, Yanhong Luo, Yuanhong Zhang, Xiaofang Zeng, Guanghui Li, Tingting Zou
article en

Abstract

Plant-derived proteins represent sustainable alternatives, yet controlling their aggregation in complex food matrices remains a key challenge. This paper systematically reviews how protein properties, environmental conditions, and processing parameters influence aggregation behavior of plant-derived protein. Furthermore, it summarizes various regulatory approaches—including self-assembly, macromolecular interactions, chemical methods, thermal, and physical treatments—highlighting their specific challenges and solutions. This paper suggests a synergistic strategy that integrates molecular self-assembly with the cooperative effects of biomacromolecules. This approach can regulate protein aggregation structures and improve interfacial stability. To address limitations in predicting aggregation kinetics, an AI-driven framework with machine learning enables precise simulation of multiscale structural evolution. This approach achieves nanoscale control of plant protein aggregates, improving emulsion stability under high oil-phase loading. Therefore, this review supports innovative applications of plant-derived proteins in meal-replacement emulsions and personalized nutrient delivery systems for precision nutrition.

Agricultural Products Processing and StorageVol. 2(1)
Ministry of Agriculture and Rural Affairs (CN), Zhongkai University of Agriculture and Engineering (CN)
National Natural Science Foundation of China
Zero hunger
Proteins in Food Systems
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