Effect of CSN3 Gene Polymorphism on the Formation of Milk Gels Induced by Physical, Chemical, and Biotechnological Factors
Author:
Kruchinin Aleksandr G.1ORCID, Illarionova Elena E.1, Galstyan Aram G.1, Turovskaya Svetlana N.1ORCID, Bigaeva Alana V.1ORCID, Bolshakova Ekaterina I.1ORCID, Strizhko Mariya N.1
Affiliation:
1. All-Russian Dairy Research Institute, Lusinovskaya Str. 35 (Blok 7), 115093 Moscow, Russia
Abstract
During the last decade, research into genetic markers in the casein gene cluster has been actively introduced in cattle breeding programs. A special interest has been paid to the polymorphism of the CSN3 gene, responsible for the expression of the k-casein, playing a key role in protein coagulation, interaction with whey proteins, stabilization, and aggregation of casein micelles. This paper aimed to determine the effect of CSN3 genetic polymorphism on acid; rennet; acid–rennet; heat- and acid-induced as well as heat- and calcium-induced coagulation in skimmed milk; and protein-standardized milk systems (UF, NF, RO, VE). The influence of polymorphic variants of the CSN3 gene on the coagulation ability of milk proteins was assessed by the particle size of casein micelles, protein retention factor in the clot, and coagulation ability (duration of induction period, mass coagulation period, dynamic viscosity in gel point). The correlation between CSN3 gene polymorphism and protein coagulation was revealed. Milk systems obtained from CSN3 BB milk were found to have the shortest duration of coagulation, formation of better gel strength values, and increased yield compared to CSN3 AA. This study will improve the efficiency of milk processing and optimize the technology of dairy product production.
Subject
Plant Science,Health Professions (miscellaneous),Health (social science),Microbiology,Food Science
Reference71 articles.
1. Cardoon-based rennets for cheese production;Almeida;Appl. Microbiol. Biotechnol.,2018 2. Deshwal, G.K., and Panjagari, N.R. (2021). Food Packaging, IntechOpen. 3. Bansal, V., and Veena, N. (2022). Understanding the role of pH in cheese manufacturing: General aspects of cheese quality and safety. J. Food Sci. Technol., 1–11. 4. Fox, P.F., Guinee, T.P., Cogan, T.M., and McSweeney, P.L.H. (2017). Fundamentals of Cheese Science, Springer. 5. Variations in milk protein fractions affect the efficiency of the cheese-making process;Cecchinato;J. Dairy Sci.,2018
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