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Increasing cheese yields by high heat treatment of milk

Published online by Cambridge University Press:  01 June 2009

Richard J. Marshall
Richard J. Marshall
Affiliation:
AFRC Food Research Institute (University of Reading), Shinfield, Reading RG2 9AT, UK
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Summary

Milk was heated at 97 °C/15 s to denature ∼ 30% of the whey protein and then used to make Cheshire cheese. Measurements of para-κ-casein production indicated that heating milk did not inhibit the enzymic action of rennet, but additional Ca and an initial pH of 6·4 were required for normal coagulation and curd-firming. In the experimental cheeses, about 4·5% more dry matter was recovered compared with controls made with pasteurized milk owing to a 6·7 and 0·7% increase in protein and fat recovery respectively. Experimental cheeses tended to be too moist and the curds did not fuse as well but these problems could be overcome by raising the scald temperature and cheddaring the curds. When the moisture in non-fat solids of control and experimental cheeses was similar (61%), the flavours and textures were not significantly different. The procedure requires little modification to existing commercial plant and should be suitable for varieties of cheese with higher moisture content and more crumbly texture than Cheddar.

Type
Original Articles
Information
Journal of Dairy Research , Volume 53 , Issue 2 , May 1986 , pp. 313 - 322
Copyright
Copyright © Proprietors of Journal of Dairy Research 1986

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References

REFERENCES

Aschaffenburg, R. & Drewry, J. 1959 New procedure for the routine determination of the various non-casein proteins of milk. 15th International Dairy Congress, London 3 1631–1637Google Scholar
Banks, J. M. & Muir, D. D. 1985 Effect of incorporation of denatured whey protein on the yield and quality of Cheddar cheese. Journal of the Society of Dairy Technology 38 27–32Google Scholar
Berridge, N. J. & Scurlock, P. G. 1969 The use of high-temperature short-time scalding in continuous curd-making. Journal of Dairy Research 36 53–63Google Scholar
Chaplin, B. & Green, M. L. 1980 Determination of the proportion of κ-casein hydrolysed by rennet on coagulation of skim-milk. Journal of Dairy Research 47 351–358CrossRefGoogle Scholar
Davis, J. G. 1976 Cheese. III. Manufacturing Methods. London: Churchill LivingstoneGoogle Scholar
Florence, E., Milner, D. F. & Harris, W. M. 1984 Nutrient composition of dairy products. I Cheeses. Journal of the Society of Dairy Technology 37 13–16CrossRefGoogle Scholar
Green, M. L., Marshall, R. J. & Glover, F. A. 1983 Influence of homogenization of concentrated milks on the structure and properties of rennet curds. Journal of Dairy Research 50 341–348CrossRefGoogle Scholar
Green, M. L., Turvey, A. & Hobbs, D. G. 1981 Development of structure and texture in Cheddar cheese. Journal of Dairy Research 48 343–355CrossRefGoogle Scholar
Kalab, M., Emmons, D. B. & Sargant, A. G. 1976 Milk gel structure. V. Microstructure of yoghurt as related to the heating of milk. Milchwissenschaft 31 402–408Google Scholar
Kimber, A. M., Brooker, B. E., Hobbs, D. G. & Prentice, J. H. 1974 Electron microscope studies of the development of structure in Cheddar cheese. Journal of Dairy Research 41 389–396CrossRefGoogle Scholar
Law, B. A. & Wigmore, A. 1982 Accelerated cheese ripening with food grade proteinases. Journal of Dairy Research 49 137–146Google Scholar
Lawrence, R. C. & Gilles, J. 1980 The assessment of the potential quality of young Cheddar cheese. New Zealand Journal of Dairy Science and Technology 15 1–12Google Scholar
Lyster, R. L. J. 1972 Reviews of the progress of dairy science. Section C. Chemistry of milk proteins. Journal of Dairy Research 39 279–318CrossRefGoogle ScholarPubMed
Marshall, R. J., Chapman, H. R. & Green, M. L. 1978 The formation of curd from heat treated milk. 20th International Dairy Congress, Paris E 805–806Google Scholar
Marshall, R. J., Hatfield, D. S. & Green, M. L. 1982 Assessment of two instruments for continuous measurement of the curd-firming of renneted milk. Journal of Dairy Research 49 127–135Google Scholar
McKenzie, H. A. 1971 Milk Proteins: Chemistry and Molecular Biology, 2. New York: Academic PressGoogle Scholar
Modler, H. W. 1974 Alternative methods of processing whey. Proceedings of the Whey Utilization Symposium. Ottawa, Canada84–93Google Scholar
Pearce, K. N. & Gilles, J. 1979 Composition and grade of Cheddar cheese manufactured over three seasons. New Zealand Journal of Dairy Science and Technology 14 63–71Google Scholar
Phelan, J. A. 1975 Cheese. Incorporation of denatured whey protein into cheese. An Foras Talúntais: Animal Production Research Report 129–130Google Scholar
Poznański, S., śmietana, Z., Jakubowski, J. & Rymaszewski, J. 1979 Casein and whey protein interaction and its technological applicability. Acta Alimentaria Polonica 5 125–137Google Scholar
Rüegg, M., Eberhard, P., Moor, U., Flückiger, E. & Blanc, B. 1980 [Relation between texture and composition in cheese.] Schweizerische Milchwirtschaftliche Forschung 9 3–8Google Scholar
Sawyer, W. H. 1969 Complex between β-lactoglobulin and κ-casein. A review. Journal of Dairy Science 52 1347–1355CrossRefGoogle ScholarPubMed
Sawyer, W. H., Coulter, S. T. & Jenness, R. 1963 Role of sulfhydryl groups in the interaction of κ-casein and β-lactoglobulin. Journal of Dairy Science 46 564–565Google Scholar
Wilson, G. A. & Wheelock, J. V. 1972 Factors affecting the action of rennin in heated milk. Journal of Dairy Research 39 413–419CrossRefGoogle Scholar