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107. Studies On the Chemistry of Cheddar Cheese Making. I. The Mineral Content of Cheese and Whey

Published online by Cambridge University Press:  01 June 2009

F. H. McDowall
Affiliation:
Dairy Research Institute (N.Z.), Palmerston North, New Zealand.
R. M. Dolby
Affiliation:
Dairy Research Institute (N.Z.), Palmerston North, New Zealand.

Extract

1. Analyses have been made of the wheys obtained at various stages in the manufacture of Cheddar cheese.

2. There is shown to be a steady rise in the concentrations of calcium and phosphorus in the wheys throughout the process up to salting. The calcium rises much more rapidly than the phosphorus.

3. After salting there is a sudden temporary fall in the concentration of both calcium and phosphorus in the whey, the calcium fall being particularly pronounced.

4. The concentration of calcium and phosphorus in the whey vary in accordance with the titratable acidity of the whey.

5. In normal cheese making some 60 per cent, of the calcium and 57 per cent, of the phosphorus in the milk is retained in the cheese.

6. Of the minerals lost in the whey some 86 per cent, of the calcium and 90 per cent, of the phosphorus escape before running.

7. An increase in the acidity of the milk before renneting increases the loss of minerals in the whey and reduces the calcium content of the cheese.

Type
Original Articles
Copyright
Copyright © Proprietors of Journal of Dairy Research 1935

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References

REFERENCES

(1) Lloyd, (18921898). Investigations in Cheesemaking.Google Scholar
(2) Sammis, , Laabs, and Suzuki, (1920). Res. Bull. Wis. agric. Exp. Sta. No. 7, p. 32.Google Scholar
(3) Wode, (1930). K. Landtbr Akad. Handl., Stockh., 69, 1032.Google Scholar
(4) Davies, (1933). J. Dairy. Res. 5, 89.CrossRefGoogle Scholar
(5) Van Slyke and Bosworth (1915, 1916). J. biol. Chem. 20, 136; 24, 191.Google Scholar
(6) Grimmer, and Paape, (1930). Milchw. Forsch. 9, 88.Google Scholar
(7) Nottbohm, and Baumann, (1933). Z. Untersuch. Lebensmitt. 65, 439.CrossRefGoogle Scholar
(8) Sammis, , Caulfield, and Kramer, (1933). J. Dairy Sci. 16, 253.Google Scholar
(9) McDowall, and Whelan, (1931). J. Dairy Res. 2, 184.CrossRefGoogle Scholar
(10) Brown, and Shohl, (1931). J. biol. Chem. 91, 745.CrossRefGoogle Scholar
(11) Supplee, and Bellis, (1921). J. biol. Chem. 48, 453.CrossRefGoogle Scholar
(12) Hartman, and Hillig, (1930). J. Ass. off. agric. Chem., Wash., 13, 99.Google Scholar
(13) Bosworth, and Prucha, (1910). J. biol. Chem. 8, 479.CrossRefGoogle Scholar
(14) Hammer, et al. (1919, 1921, 1923). Res. Bull. la agric. Exp. Sta. Nos. 55, 66, 80.Google Scholar
(15) Lampitt, and Bogod, (1933). Biochem. J. 27, 365.Google Scholar