Owing to their high nutritional value, functional proteins, and low environmental impact, legume proteins have emerged as sustainable alternatives to animal proteins. However, their broader utilization is constrained by antinutritional factors (ANFs), which can adversely affect protein digestibility, mineral bioavailability, and techno-functional features. Fermentation has appeared as a promising approach to overcoming these limitations. Through microbial and enzymatic activities, fermentation can reduce ANFs, modify protein structures, and promote proteolysis, generating peptides and free amino acids that may improve digestibility, bioavailability, and functional properties. This review critically explores the effects of fermentation on legume proteins, concentrating on ANF reduction, protein degradation and structural modification, proteolysis, and their consequences for nutritional and techno-functional properties. Particular attention is given to protein hydrolysis and peptide generation, as well as the limitations and potential trade-offs of fermentation, including extreme proteolysis, loss of desirable functional properties, unwanted sensory changes, variability among strains and substrates, and prolonged processing. The review also discusses the incorporation of fermented legume proteins into relevant food systems, with emphasis on their functional performance and application potential. Finally, current knowledge gaps and future research priorities are highlighted to support the development of controlled fermentation strategies for nutritionally improved, functionally tailored, and industrially feasible legume protein ingredients.
Fermentation is an effective natural strategy for reducing antinutritional factors (ANFs) in plant-based foods. ANFs can limit nutrient bioavailability, impair protein digestibility, and pose health risks. Microbial fermentation degrades ANFs through acidification, enzymatic activity, and microbial metabolism. Beyond d...
Z. Sarlak, Ehsan Parandi, Reza Mohammadi et al.· Food Chemistry· 0 citations
By integrating various fermentation types and microbial strategies, the food industry can transform underutilized legumes into nutrient-dense, functional ingredients, which facilitates the creation of sensorially appealing, health-promoting plant-based foods that outperform their raw counterparts.
Elena Sánchez-Zapata, Noemí Echegaray, M. Parisi et al.· Current Food Science and Tec...· 0 citations
Cereal and pseudo-cereal based fermented food products represent a substantial segment of global diet, nutrition as well as food security. Fermentation, especially by Lactic Acid Bacteria (LAB) increases the nutritional and functional values of foods by increasing palatability, bioavailability and minimizing antinutrit...
Adyasa Barik, Hui-Wen Lin, Chen-Che Hsieh et al.· International Journal of Bio...· 0 citations
The global population growth and the transformation of dietary structure are intensifying the contradiction between protein supply and demand, so there is an urgent need to develop sustainable alternative protein sources. Melon seeds, as a major by-product of the melon processing industry, are estimated to have an annu...
Jincan Wu, Jing-Jing Xu, Zexu Li et al.· Comprehensive Reviews in Foo...· 0 citations
Peanut (Arachis hypogaea L.) is an important plant-based protein source containing substantial amounts of lipids, amino acids, phenolic compounds, tocopherols, and other bioactive constituents. However, the nutritional and functional utilization of peanuts is constrained by the presence of antinutritional compounds, li...
S. A. Prayitno· Natural Resources for Human...· 0 citations