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Comparison of the level of residual coagulant activity in different cheese varieties

Published online by Cambridge University Press:  18 May 2009

Nidhi Bansal
Affiliation:
Department of Food and Nutritional Sciences, University College Cork, College Road, CorkIreland
Patrick F Fox
Affiliation:
Department of Food and Nutritional Sciences, University College Cork, College Road, CorkIreland
Paul L H McSweeney*
Affiliation:
Department of Food and Nutritional Sciences, University College Cork, College Road, CorkIreland
*
*For correspondence; e-mail: p.mcsweeney@ucc.ie

Abstract

The coagulant retained in cheese curd is a major contributor to proteolysis during ripening. The objective of this study was to quantify residual coagulant in 9 cheese varieties by measuring its activity on a synthetic heptapeptide (Pro-Thr-Glu-Phe-[NO2-Phe]-Arg-Leu) assayed using reversed-phase HPLC. The level of residual coagulant activity was highest in Camembert cheese, probably due to its low pH at whey drainage and the high moisture content of the cheese, followed in order by Feta=Port du Salut=Cheddar>Gouda>Emmental=Parmigiano Reggiano=low-moisture part-skim Mozzarella=Mozzarella di Bufala Campana. The high cooking temperature (50–54°C) used during the manufacture of Emmental and Parmigiano Reggiano cheeses and the cooking and stretching step in hot water during the manufacture of Mozzarella cheese may be the reasons for the lowest residual coagulant activity in these cheeses. The level of residual coagulant activity was higher in Feta cheese made from milk concentrated by ultrafiltration than in conventional Feta.

Type
Research Article
Copyright
Copyright © Proprietors of Journal of Dairy Research 2009

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References

Baer, A & Collin, JC 1993 Determination of residual activity of milk-clotting enzymes in cheese. Specific identification of chymosin and its substitutes in cheese. International Dairy Federation Bulletin 284 1823Google Scholar
Bansal, N, Fox, PF & McSweeney, PLH 2007 Factors affecting the retention of rennet in cheese curd. Journal of Agricultural and Food Chemistry 55 92199225CrossRefGoogle ScholarPubMed
Boudjellab, N, Rolet-Repecaud, O & Collin, JC 1994 Detection of residual chymosin in cheese by an enzyme-linked immunosorbent assay. Journal of Dairy Research 61 101109CrossRefGoogle Scholar
Creamer, LK, Lawrence, RC & Gilles, J 1985 Effect of acidification of cheese milk on the resultant Cheddar cheese. New Zealand Journal of Dairy Science and Technology 20 185203Google Scholar
Dunnewind, B, de Roos, AL & Geurts, TJ 1996 Association of chymosin with caseins in solution. Netherlands Milk and Dairy Journal 50 121133Google Scholar
Fox, PF & McSweeney, PLH 1996 Proteolysis in cheese during ripening. Food Reviews International 12 457509CrossRefGoogle Scholar
Fox, PF & McSweeney, PLH 1997 Rennets: Their role in milk coagulation and cheese ripening. In Microbiology and Biochemistry of Cheese and Fermented Milk, 2nd edition pp. 149 (Ed. Law, BA). London: Blackie Academic and ProfessionalGoogle Scholar
Garnot, P, Molle, D & Piot, M 1987 Influence of pH, type of enzyme and ultrafiltration on the retention of milk clotting enzymes in Camembert cheese. Journal of Dairy Research 54 315320CrossRefGoogle Scholar
Green, ML, Glover, FA, Scurlock, EMW, Marshall, RJ & Hatfield, DS 1981 Effect of use of milk concentrated by ultrafiltration on the manufacture and ripening of Cheddar cheese. Journal of Dairy Research 48 333341CrossRefGoogle Scholar
Hesari, J, Ehsani, MR, Mosavi, MAE & McSweeney, PLH 2007 Proteolysis in ultra-filtered and conventional Iranian white cheese during ripening. International Journal of Dairy Technology 60 211220CrossRefGoogle Scholar
Holmes, DG, Duersch, JW & Ernstrom, CA 1977 Distribution of milk clotting enzymes between curd and whey and their survival during Cheddar cheese making. Journal of Dairy Science 60 862869CrossRefGoogle Scholar
Hurley, MJ, O'Driscoll, BM, Kelly, AL & McSweeney, PLH 1999 Novel assay for the determination of residual coagulant activity in cheese. International Dairy Journal 9 555558CrossRefGoogle Scholar
International Dairy Federation 1982 Cheese and processed cheese. Determination of the total solids content. Reference method 4A. IDF-FID Brussels BelgiumGoogle Scholar
Lane, CN, Fox, PF, Johnston, DE & McSweeney, PLH 1997 Contribution of coagulant to proteolysis and textural changes in Cheddar cheese during ripening. International Dairy Journal 7 453464CrossRefGoogle Scholar
Lemieux, L, Simard, RE 1991 Bitter flavour in dairy products. I. A review of the factors likely to influence its development, mainly in cheese manufacture. Lait 71 599636CrossRefGoogle Scholar
Lemieux, L, Simard, RE 1992 Bitter flavour in dairy products. II. A review of bitter peptides from caseins: their formation, isolation and identification, structure masking and inhibition. Lait 72 335382CrossRefGoogle Scholar
Matheson, AR 1981 The immunological determination of chyosin activity in cheese. New Zealand Journal of Dairy Science and Technology 15 3341Google Scholar
McSweeney, PLH, Olson, NF, Fox, PF, Healy, A & Hojrup, P 1993 Proteolytic specificity of chymosin on bovine αs1-casein. Journal of Dairy Research 60 401412CrossRefGoogle Scholar
O'Keeffe, AM, Fox, PF & Daly, C 1978 Proteolysis in Cheddar cheese: role of coagulant and starter bacteria. Journal of Dairy Research 45 465477CrossRefGoogle Scholar
O'Mahony, JA, Lucey, JA & McSweeney, PLH 2005 Chymosin-mediated proteolysis, calcium solubilization, and texture development during the ripening of Cheddar cheese. Journal of Dairy Science 88 31013114CrossRefGoogle ScholarPubMed
Ohmiya, K & Sato, Y 1972 Studies on the proteolytic action of dairy lactic acid bacteria. Part XII. Significant contribution of intercellular protease of lactic acid bacteria to the casein hydrolysis in cheese ripening. Milchwissenschaft 27 417421Google Scholar
Rampilli, M, Raja, V & Gatti, AL 1998 Valutazione dell'attività residua del caglio nel formaggio [Evaluation of residual rennet activity in cheese]. Scienza E Tecnica Lattiero-Casearia 49 2941Google Scholar
Robinson, RK & Wilbey, RA 1998 Cheesemaking Practice R. Scott 3rd editionGaithersburg, MD: Aspen PublishersGoogle Scholar
Shakeel-Ur-Rehman, , McSweeney, PLH & Fox, PF 1998 Protocol for the manufacture of miniature cheeses. Lait 78 607620CrossRefGoogle Scholar
Singh, H & Creamer, LK 1990 A sensitive quantitative assay for milk coagulants in cheese and whey products. Journal of Dairy Science 73 11581165CrossRefGoogle Scholar
Sousa, MJ, Ardo, Y & McSweeney, PLH 2001 Advances in the study of proteolysis in cheese during ripening. International Dairy Journal 11 327345CrossRefGoogle Scholar
Stadhouders, J & Hup, G 1975 Factors affecting bitter flavour in Gouda cheese. The Netherlands Milk and Dairy Journal 29 335353Google Scholar
Upadhyay, VK, McSweeney, PLH, Magboul, AAA & Fox, PF 2004 Proteolysis in cheese during ripening. In Cheese: Chemistry, Physics and Microbiology, vol. 1: General Aspects, 3rd edition pp. 392433. (Eds Fox, PF, McSweeney, PLH, Cogan, TM & Guinee, TP). London: Elsevier Academic PressGoogle Scholar
Vassal, L & Gripon, JC 1984 Bitterness in Camembert cheese: role of rennet and Penicillium caseicolum and methods of control. Lait 64 397417CrossRefGoogle Scholar
Visser, FMW & de Groot-Mostert, AEA 1977 Contribution of enzymes from rennet, starter bacteria and milk to proteolysis and flavour development in Gouda cheese. 4. Protein breakdown: a gel electrophoretical study. Netherlands Milk and Dairy Journal 31 247264Google Scholar
Visser, FMW 1977 Contribution of enzymes from rennet, starter bacteria and milk to proteolysis and flavour development in Gouda cheese. 1. Description of cheese and aseptic cheesemaking techniques. Netherlands Milk and Dairy Journal 31 120133Google Scholar
Visser, S, Hup, G, Exterkate, FA & Stadhouders, J 1983 Bitter flavour in cheese. 2. Model studies on the formation and degradation of bitter peptides by proteolytic enzymes from calf rennet, starter cells and starter cell fractions. Netherlands Milk and Dairy Journal 37 169180Google Scholar
Winwood, J 1989 Rennet and rennet substitutes. Journal of the Society of Dairy Technology 42 12CrossRefGoogle Scholar
Zoon, P, Ansems, C & Faber, EJ 1994 Measurement procedure for concentration of active rennet in cheese. The Netherlands Milk and Dairy Journal 48 141150Google Scholar