Abstract
Freezing is one of the more common processes for the preservation of foods. Though it has been recognized as a preservation technique for several hundred years, the major developments in its utilization have occurred only in the last century. It is well known that lowering the temperature reduces the activity of microorganisms and enzyme systems, thus preventing deterioration of the food product. In addition to the influence of temperature reduction on microorganisms and enzymes, crystallization of the water in the product tends to reduce the amount of liquid water in the system and inhibit microbial growth or enzyme activity in the secondary action.
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Bibliography
BAKAL, A., and HAYAKAWA, K. 1973. Heat transfer during freezing and thawing of foods. Adv. Food Res. 20, 218.
BONACINA, C., and COMINI, G. 1973a. On a numerical method for the solution of the unsteady state heat conduction equation with temperature dependent parameters. Proceedings of the XIII Int. Congress of Refr. 2, 329.
BONACINA, C., COMINI, G., FASANO, A. and PRIMICERIO, M. 1973. Numerical solution of phase change problems. Int. J. Heat Mass Transfer 16, 1825.
BONACINA, C., COMINI, G., FASANO, A., and PRIMICERIO, M. 1974. On the estimation of thermophysical properties in non-linear heat-conduction problems. Int. J. Heat Mass Transfer 17, 861.
BREYER, F, WAGNER, R.C., and RYAN, J.P. 1966a. Application of liquid nitrogen to the freezing of baked goods. Quick Frozen Foods Intern. 7, No. 4, 58–62 133–136.
BREYER, F, WAGNER, R.C., and RYAN, J.P. 1966b. Application of cryogenics in the baking industry. Chem. Engr. Prog. Symp. Ser. 62, No. 69, 93–103.
BROWN, W.D., and DOLEV, A. 1963. Effect of freezing on autoxidation of oxymyoglobin solutions. J. Food Sci. 28(2), 211–213.
CARSLAW, H.S., and JAEGER, J.C. 1959. Conduction of Heat Solids. Clarendon Press, Oxford, England.
CHARM, S.E. 1978. The Fundamentals of Food Engineering, 3rd Edition. AVI Publishing Co., Westport, Conn.
CHARM, S.E., and SLA VIN, J. 1962. A method for calculating freezing time of rectangular packages of food. Int. Institute of Refr. Meeting Commissions 2, 3, 4, and 6A, Washington, D.C. Bulletin, Annexe: 567.
CHAVARRIA, V.M. 1978. Experimental determination of the surface heat transfer coefficient under food freezing conditions. M.S. Thesis. Department of Agricultural Engineering. Michigan State University, East Lansing, MI.
CLELAND, A.C., and EARLE, R.L. 1976. A new method for prediction of surface heat transfer coefficients in freezing. Bull. I.I.R., Annexe-1, 361.
CLELAND, A.C., and EARLE, R.L. 1977a. A comparison of analytical and numerical methods of predicting the freezing times of foods. J. Food Science, 42, 1390.
CLELAND, A.C., and EARLE, R.L. 1979a. A comparison of methods for predicting the freezing times of cylindrical and spherical foodstuffs. J. Food Sci. 44.
CLELAND, A.C., and EARLE, R.L. 1979b. Prediction of freezing times for foods in rectangular packages. J. Food Sci. 44, 964.
COMINI, G., and BONACINA, C. 1974. Application of computer codes to phase-change problems in food engineering. Int. Institute of Refr. Meeting of Commissions B1, C1, and C2, Bressanone, Italy. Bulletin, Annexe:15.
COMINI, G., DEL GUIDICE, S., STRADA, M., and REBELLATO, L. 1978. The finite element method in refrigeration engineering. Int. J. Refr., 1, 113.
COWELL, N.D. 1967. The calculation of food freezing times. Proc. 12th Int. Congr. Refrig. pp. 1.
COWELL, N.D., and Namor, M.S.S. 1974. Heat transfer coefficients in plate freezing—effect of packaging materials. Proc. of I.I.R. Meeting of Commissions Bl, CI and C2. Bressanone, Italy. Sept. 17–20.
DICKERSON, R.W. Jr. 1969. Thermal properties of food. In The Freezing Preservation of Foods, 4th Edition, Vol. 2, D.K. Tressler, W.B. Van Arsdel, and M.J. Copley (Editors). AVI Publishing Co., Westport, Conn.
EARLE, R.L. 1971. Simple probe to determine cooling rates in air. Proc. XIII Int. Congr. Refrig. 2, 373.
EDE, A.J. 1949. The calculation of the freezing and thawing of foodstuffs. Mod. Refrig. 52, 52.
EVERINGTON, D.W. 1973. Methods of quick freezing. Food Manufacture 48, No. 3, 21–25.
FENNEMA, O. 1975. Freezing Preservation. In Physical Principles of Food Engineering, pp. 173. Marcel Dekker, Inc., New York.
FENNAMA, O., and POWRIE, W.D. 1964. Fundamentals of low-temperature food preservation. Advan. Food Res. 13, 219–347.
FENNEMA, O.R. 1973. Nature of the freezing process. In Low-Temperature Preservation of Foods and Living Matter, Marcel Dekker, New York.
HELDMAN, D.R. 1966. Predicting refrigeration requirements for freezing ice cream. Quart. Bull. Mich. Agr. Expt. Sta. 49, No. 2, 144–154.
HELDMAN, D.R. 1974a. Predicting the relationship between unfrozen water fraction and temperature during food freezing using freezing point depression. Trans. ASAE 17, 63.
HELDMAN, D.R. 1974b. Computer simulation of food freezing processes. Proceedings of the VI Int. Congress of Food Science and Technology IV, 397.
HELDMAN, D.R., and Gorby, D.P. 1975a. Prediction of thermal conductivity in frozen food. Trans. ASAE 18(1)156–58 & 62.
HELDMAN, D.R., and GORBY, D.P. 1975b. Computer simulation of individual-quick-freezing of foods. ASAE Paper No. 75–6016.
HELDMAN, D.R. 1979. Prediction of food product freezing rates. Presented at 2nd Int. Congr. on Engr. and Food. Helsinki, Finland. Aug. 27–31.
HOHNER, G.A, and HELDMAN, D.R. 1970. Computer simulation of freezing rates in foods. Presented at 30th Ann. Meeting Institute of Food Technologists May 24–27, San Francisco, Calif.
HSIEH, R.C., LEREW, L.E., and HELDMAN, D.R. 1977. Prediction of freezing times for foods as influenced by product properties. J. Food Proc. Engr. 1, 183.
I.I.R. 1971. International Institute of Refrigeration. Recommendations for the Processing and Handling for Frozen Foods. 2nd Ed. Paris.
JOSHI, C., and TAO, L.C. 1974. A numerical method of simulating the axisymmetrical freezing of food systems. J. Food Science 39,623.
LENTZ, C.P. 1961. Thermal conductivity of meats, fats, gelatin, gel and ice. Food Technol. 15, 243–247.
LONG, R.A. 1955. Some thermodynamic properties of fish and their effect on the rate of freezing. J. Sci. Food Agr. 6, 621.
MERYMAN, H.T. 1956. Mechanics of freezing in living cells and tissues. Science 124, 515.
MOORE, W.J. 1962. Physical Chemistry, 3rd Edition. Prentice-Hall, Engle-wood Cliffs, N.J.
MOTT, L.F. 1964. The prediction of product freezing time. Aust. Refrig., Air Cond. Heat 18, 16.
NAGAOKA, J., TAKAGI, S., and HOTANI, S. 1955. Experiments on the freezing of fish in an air-blast freezer. Proc. 9th Intern. Congr. Refrig., (Paris) 2, 4.
PLANK, R.Z. 1913. Ges. Kalte-Ind. 20, 109 (In German). Cited by A.J. Ede. 1949. The calculation of the freezing and thawing of foodstuffs. Mod. Refrig. 52, 52.
PURWADARIA, H.K. 1980. A Numerical Prediction Model for Food Freezing Using Finite Element Methods. Ph.D. Dissertation. Agricultural Engineering Dept. Michigan State University.
RIEDEL, L. 1949. Refractive index and freezing temperatures of fruit juices as a function of concentration. Lebensmittel 89, 289–299. (German).
RIEDEL, L. 1951. The refrigeration effect required to freeze fruits and vegetables. Refrig. Eng. 59, 670–673.
RIEDEL, L. 1956. Calorimetric investigations of the freezing of fish meat. Kältetechnik 8, No. 12, 374–377. (German).
RIEDEL, L. 1957A. Calorimetric investigations of the meat freezing process. Kaltetechnik 9, 38–40. (German).
RIEDEL, L. 1957B. Calorimetrie investigations of the freezing of egg whites and yolks. Kaltetechnik 9, No. 11, 342–345. (German).
ROLFE, E.J. 1968. The chilling and freezing of foodstuffs. In Biochemical and biological Engineering Science, N. Blakebrough (Editor). Academic Press, New York.
SCHWIMMER, S., INGRAHAM, L.L., and HIGHES, H.M. 1955. Temperature tolerance in frozen food processing. Ind. Eng. Chem. 47(6), 1149–1151.
SINGH, R.P. 1976. Computer simulation of food quality during frozen food storage. Paper presented at the Inter. Inst. of Refrig., Melbourne, Australia.
SINGH, R.P., and WANG, C.Y. 1977. Quality of frozen foods—A Review. J. Food Process Engr. 1(2), 97.
STEPHENSON, J.L. 1960. Ice crystal formation in biological materials during rapid freezing. Ann. N.Y. Acad. Sci. 85, 535.
TAO, L.C. 1967. Generalized numerical solutions of freezing a saturated liquid in cylinders and spheres. AICHE J. 13, 165.
TAO, L.C. 1971. Personal communication, see Bakal, A. and Hayakawa, K. 1973. Heat transfer during freezing and thawing of foods. Adv. Food Res. 20, 218.
TIEN, R.H. and G.E. GEIGER. 1967. A heat transfer analysis of the solidification of a binary eutectic system. J. Heat Transfer 9:230.
TIEN, R.H. and G.E. GEIGER. 1968a. The unidimensional solidification of a binary eutectic system with a time-dependent surface temperature. J. Heat Transfer. 9C (1) 27.
TIEN, R.H. and V. KOUMO. 1968b. Unidimensional solidification of a slab-variable surface temperature. Trans. Metallurgical Sec. AIME. 242:283.
TIEN, R.H. and V. KOUMO. 1969. Effect of density change on the solidification of alloys. ASME Paper No. 69-HT, 45.
VAN ARSDEL, W.B., and GUADAGNI, D.G. 1959. Time-temperature tolerance of frozen foods. XV. Method of using temperature histories to estimate changes in frozen food quality. Food Technol. 13(1), 14–19.
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Heldman, D.R., Singh, R.P. (1981). Thermodynamics of Food Freezing. In: Food Process Engineering. Springer, Dordrecht. https://doi.org/10.1007/978-94-010-9337-8_4
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DOI: https://doi.org/10.1007/978-94-010-9337-8_4
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