Enabling computer-aided food process engineering: Property estimation equations for transport phenomena-based models

Journal of Food Engineering

Volumn 116, Issue 2, 2013, Pages 483-504

  Gulati, Tushar ^a   Datta, Ashim K ^a  

^a Department of Biological and Environmental Engineering   (United States)

Author keywords

Electrical properties; Mass diffusivity; Modeling; Simulation; Thermal properties; Transport properties

Indexed keywords

COMPUTER SOFTWARE; ELECTRIC PROPERTIES; ELECTRON TRANSPORT PROPERTIES; MODELS; PHYSICAL PROPERTIES; PROCESS ENGINEERING; PRODUCT DESIGN; THERMODYNAMIC PROPERTIES; TRANSPORT PROPERTIES;

ESTIMATION EQUATIONS; MASS DIFFUSIVITY; PREDICTION EQUATIONS; PROCESS SIMULATIONS; PROPERTY ESTIMATION; REALISTIC SIMULATION; SIMULATION; SIMULATION SOFTWARE;

THERMAL PROCESSING (FOODS);

EID: 84883452488     PISSN: 02608774     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jfoodeng.2012.12.016     Document Type: Review

References (136)

1. Agnelli, M.E., Mascheroni, R.H., 2001. Cryomechanical freezing. A model for the heat transfer process. Journal of Food Engineering 47 (4), 263-270.
2. Amiali, M., Ngadi, M.O., Raghavan, V.G.S., Nguyen, D.H., 2006. Electrical conductivities of liquid egg products and fruit juices exposed to high pulsed electric fields. International Journal of Food Properties 9 (3), 533-540. (Pubitemid 44091896)
3. Assael, M.J., Trusler, J.P.M., Tsolakis, T.F., 1996. Thermophysical Properties of Fluids: An Introduction to Their Prediction. Imperial College Press, London.
4. Becker, B.R., Fricke, B.A., 1999. Food thermophysical property models. International Communications in Heat and Mass Transfer 26 (5), 627-636. (Pubitemid 29497200)
5. Bengtsson, N.E., Rismon, P.O., 1971. Dielectric properties of food at 3GHz as determined by a cavity perturbation technique. II. Measurements on food materials. Journal of Microwave Power and Electromagnetic Energy 6 (2), 107-123.
6. Bengtsson, N.E., Soderlin, S., Remi, K., Melin, J., 1963. Measurements of dielectric properties of frozen and defrosted meat and fish in frequency range 10-200 MHz. Journal of the Science of Food and Agriculture 14 (8), 592-597.
7. Bimbenet, J.-J., Schubert, H., Trystram, G., 2007. Advances in research in food process engineering as presented at ICEF 9. Journal of Food Engineering 78 (2), 390-404. (Pubitemid 44118487)
8. Bird, R.B., Stewart, W.E., Lightfoot, E.N., 2006. Transport Phenomena, 2nd ed. Wiley, New York.
9. Boonsupthip, W., Heldman, D.R., 2007. Prediction of frozen food properties during freezing using product composition. Journal of Food Science 72 (5), E254-E263. (Pubitemid 46991975)
10. Boonsupthip, W., Sajjaanantakul, T., Heldman, D.R., 2009. Use of average molecular weights for product categories to predict freezing characteristics of foods. Journal of Food Science 74 (8), E417-E425.
11. Calay, R.K., Newborough, M., Probert, D., Calay, P.S., 1994. Predictive equations for the dielectric-properties of foods. International Journal of Food Science and Technology 29 (6), 699-713.
12. Carson, J.K., 2002. Prediction of the thermal conductivity of porous foods, Ph.D Thesis. Massey University.
13. Carson, J.K., 2006. Review of effective thermal conductivity models for foods. International Journal of Refrigeration-Revue Internationale Du Froid 29 (6), 958-967. (Pubitemid 44108136)
14. Carson, J.K., Lovatt, S.J., Tanner, D.J., Cleland, A.C., 2005. Thermal conductivity bounds for isotropic, porous materials. International Journal of Heat and Mass Transfer 48 (11), 2150-2158.
15. Carson, J.K., Lovatt, S.J., Tanner, D.J., Cleland, A.C., 2006. Predicting the effective thermal conductivity of unfrozen, porous foods. Journal of Food Engineering 75 (3), 297-307. (Pubitemid 43277420)
16. Castro, I., Teixeira, J.A., Salengke, S., Sastry, S.K., Vicente, A.A., 2003. The influence of field strength, sugar and solid content on electrical conductivity of strawberry products. Journal of Food Process Engineering 26 (1), 17-29.
17. Castro, I., Teixeira, J.A., Salengke, S., Sastry, S.K., Vicente, A.A., 2004. Ohmic heating of strawberry products: electrical conductivity measurements and ascorbic acid degradation kinetics. Innovative Food Science & Emerging Technologies 5 (1), 27-36. (Pubitemid 38304977)
18. Chamchong, M., Datta, A.K., 1999. Thawing of foods in a microwave oven: II. Effect of load geometry and dielectric properties. Journal of Microwave Power and Electromagnetic Energy 34 (1), 22-32.
19. Chang, H.D., Tao, L.C., 1981. Correlations of enthalpies of food systems. Journal of Food Science 46 (5), 1493-1497.
20. Chaunier, L., Chrusciel, L., Delisee, C., Della Valle, G., Malvestio, J., 2008. Permeability and expanded structure of baked products crumbs. Food Biophysics 3 (4), 344-351.
21. Chen, C.S., 1985b. Thermodynamic analysis of the freezing and thawing of foods - ice content and Mollier diagram. Journal of Food Science 50 (4), 1163-1166.
22. Chen, C.S., 1990. Predicting water activity in solutions of mixed solutes. Journal of Food Science 55 (2), 494-497.
23. Chen, C.S., Nguyen, T.K., Braddock, R.J., 1990. Relationship between freezing-point depression and solute composition of fruit juice systems. Journal of Food Science 55 (2), 566-567.
24. Chen, X.D., Xie, G.Z., Rahman, M.S., 1998. Application of the distribution factor concept in correlating thermal conductivity data for fruits and vegetables. International Journal of Food Properties 1 (1), 35-44. (Pubitemid 128633324)
25. Chin, N.L., Chan, S.M., Yusof, Y.A., Chuah, T.G., Talib, R.A., 2009. Modelling of rheological behaviour of pummelo juice concentrates using master-curve. Journal of Food Engineering 93 (2), 134-140.
26. Choi, Y., Okos, M.R., 1986. Effects of temperature and composition on the thermal properties of foods. Journal of Food Process and Applications 1 (1), 93-101.
27. Cogne, C., Laurent, P., Andrieu, J., Ferrand, J., 2003. Experimental data and modelling of ice cream freezing. Chemical Engineering Research & Design 81 (A9), 1129-1135. (Pubitemid 38043193)
28. Datta, A.K., 2006. Hydraulic permeability of food tissues. International Journal of Food Properties 9 (4), 767-780. (Pubitemid 44536535)
29. Datta, A.K., 2007. Porous media approaches to studying simultaneous heat and mass transfer in food processes. I: Problem formulations. Journal of Food Engineering 80 (1), 80-95. (Pubitemid 44739108)
30. Datta, A.K., van der Sman, R., Gulati, T., Warning, A., 2012. Soft matter approaches as enablers for food macroscale simulation. Journal of the Royal Society of Chemistry 158, 435-359.
31. Datta, A.K., Rakesh, V., 2009. An Introduction to Modeling of Transport Processes Applications to Biomedical Systems. Cambridge University Press, Cambridge, UK.
32. Dealwis, A.A.P., Fryer, P.J., 1992. Operability of the ohmic heating process - electrical-conductivity effects. Journal of Food Engineering 15 (1), 21-48. (Pubitemid 21720635)
33. Dhall, A., Datta, A.K., 2011. Transport in deformable food materials: a poromechanics approach. Chemical Engineering Science 66 (24), 6482-6497.
34. Dolan, K.D., Steffe, J.F., 1990. Modeling rheological behaviour of gelatinizing starch solutions using viscometry data. Journal of Texture Studies 21 (3), 265-294.
35. Dorsey, N.E., 1940. Properties of Ordinary Water-Substance in All Its Phases: Water-Vapor, Water, and all the ices. Reinhold, New York.
36. Feng, H., Tang, J., Plumb, O.A., Cavalieri, R.P., 2004. Intrinsic and relative permeability for flow of humid air in unsaturated apple tissues. Journal of Food Engineering 62 (2), 185-192.
37. Fikiin, K.A., 1998. Ice content prediction methods during food freezing: a survey of the Eastern European literature. Journal of Food Engineering 38 (3), 331-339. (Pubitemid 128675083)
38. Fikiin, K.A., Fikiin, A.G., 1999. Predictive equations for thermophysical properties and enthalpy during cooling and freezing of food materials. Journal of Food Engineering 40 (1-2), 1-6.
39. Gillet, G., Vitrac, O., Desobry, S., 2010. Prediction of partition coefficients of plastic additives between packaging materials and food simulants. Industrial & Engineering Chemistry Research 49 (16), 7263-7280.
40. Goedeken, D.L., Tong, C.H., 1993. Permeability measurements of porous food materials. Journal of Food Science 58 (6), 1329-1331.
41. Guessasma, S., Chaunier, L., Della Valle, G., Lourdin, D., 2011. Mechanical modelling of cereal solid foods. Trends in Food Science & Technology 22, 142-153.
42. Halder, A., Dhall, A., Datta, A.K., 2007. An improved, easily implementable, porous media based model for deep-fat frying - Part I: Model development and input parameters. Food and Bioproducts Processing 85 (C3), 209-219. (Pubitemid 47490986)
43. Halder, A., Dhall, A., Datta, A.K., 2011. Modeling transport in porous media with phase change: applications to food processing. Journal of Heat Transfer - Transactions of the Asme 133 (3).
44. Hamdami, N., Monteau, J.Y., Le Bail, A., 2004. Thermophysical properties evolution of French partly baked bread during freezing. Food Research International 37 (7), 703-713. (Pubitemid 38791500)
45. Hartel, R.W., 2001. Crystallization in Foods. Aspen Publishers, Gaithersburg.
46. Hasted, J.B., Elsabeh, S.H.M., 1953. The dielectric properties of water in solutions. Transactions of the Faraday Society 49 (9), 1003-1011.
47. Heldman, D.R., 1974. Predicting relationship between unfrozen water fraction and temperature during food freezing using freezing-point depression. Transactions of the ASAE 17 (1), 63-66.
48. Heldman, D.R., 1982. Food properties during freezing. Food Technology 36 (2), 92-96.
49. Ho, Q., Verboven, P., Verlinden, B., Herremans, E., Wevers, M., Carmeliet, J., Nicolai, B., 2011. A 3-D multiscale model for gas exchange in fruit. Plant Physiology 155 (3), 1158-1168.
50. Hu, L.Z., Toyoda, K., Ihara, I., 2008. Dielectric properties of edible oils and fatty acids as a function of frequency, temperature, moisture and composition. Journal of Food Engineering 88 (2), 151-158.
51. Hwang, C.H., Gunasekaran, S., 2010. Specific heat capacity. In: Heldman, D.R., Moraru, C.I. (Eds.), Encyclopedia of Agricultural, Food, and Biological Engineering, second ed. CRC Press, Boca Raton, Florida, pp. 1572-1580.
52. Ilic, M., Turner, I.W., 1989. Convective drying of a consolidated slab of wet porous material. International Journal of Heat and Mass Transfer 32 (12), 2351-2362. (Pubitemid 20646499)
53. Khalloufi, S., Almeida-Rivera, C., Bongers, P., 2009. A theoretical model and its experimental validation to predict the porosity as a function of shrinkage and collapse phenomena during drying. Food Research International 42 (8), 1122-1130.
54. Khalloufi, S., Almeida-Rivera, C., Bongers, P., 2010. A fundamental approach and its experimental validation to simulate density as a function of moisture content during drying processes. Journal of Food Engineering 97 (2), 177-187.
55. Kanit, T., N'Guyen, F., Forest, S., Jeulin, D., Reed, M., Singleton, S., 2006. Apparent and effective physical properties of heterogeneous materials: Representativity of samples of two materials from food industry. Computer Methods in Applied Mechanics and Engineering 195, 3960-3982. (Pubitemid 44287663)
56. King, C.J., 1968. Rates of moisture sorption and desorption in porous dried foodstuffs. Food Technology 22 (4), 509.
57. Kolhapure, N.H., Venkatesh, K.V., 1997. An unsaturated flow of moisture in porous hygroscopic media at low moisture contents. Chemical Engineering Science 52 (19), 3383-3392. (Pubitemid 27415865)
58. Kraszewski, A., Nelson, S.O., 1989. Composite model of the complex permittivity of cereal grain. Journal of Agricultural Engineering Research 43 (3), 211-219.
59. Kuang, W., Nelson, S.O., 1997. Dielectric relaxation characteristics of fresh fruits and vegetables from 3 to 20 GHz. Journal of Microwave Power and Electromagnetic Energy 32 (2), 114-122. (Pubitemid 127607110)
60. Kumar, P., Coronel, P., Simunovic, J., Truong, V.D., Sandeep, K.P., 2007. Measurement of dielectric properties of pumpable food materials under static and continuous flow conditions. Journal of Food Science 72 (4), E177-E183. (Pubitemid 46714126)
61. Landau, L.D., Lifshits, E.M., 1960. Electrodynamics of Continuous Media. Pergamon Press, Oxford, New York.
62. Lewis, M.J., 1987. Physical Properties of Food and Processing Systems. Federal Republic of Germany, Weinheim; VCH, Chichester, West Sussex, West Germany.
63. Lizhi, H., Toyoda, K., Ihara, I., 2008. Dielectric properties of edible oils and fatty acids as a function of frequency, temperature, moisture and composition. Journal of Food Engineering 88 (2), 151-158.
64. Looyenga, H., 1965. Dielectric constants of heterogeneous mixtures. Physica 31 (3), 401-407.
65. Lozano, J.E., Rotstein, E., Urbicain, M.J., 1980. Total porosity and open-pore porosity in the drying of fruits. Journal of Food Science 45 (5), 1403-1407.
66. Madamba, P.S., Driscoll, R.H., Buckle, K.A., 1994. Shrinkage, density and porosity of garlic during drying. Journal of Food Engineering 23 (3), 309-319.
67. Mannapperuma, J.D., Singh, R.P., 1988. Prediction of freezing and thawing times of foods using a numerical-method based on enthalpy formulation. Journal of Food Science 53 (2), 626-630.
68. Mannapperuma, J.D., Singh, R.P., 1989. A computer-aided method for the prediction of properties and freezing/thawing times of foods. Journal of Food Engineering 9, 275-303.
69. Marcotte, M., Trigui, M., Ramaswamy, H.S., 2000. Effect of salt and citric acid on electrical conductivities and ohmic heating of viscous liquids. Journal of Food Processing and Preservation 24 (5), 389-406.
70. Marinos-Kouris, D., Maroulis, Z.B., 1995. Thermophysical properties for the drying of Solids. In: Mujumdar, A.S. (Ed.), Handbook of Industrial Drying. Marcel Dekker, New York.
71. Maroulis, Z.B., Krokida, M.K., Rahman, M.S., 2002. A structural generic model to predict the effective thermal conductivity of fruits and vegetables during drying. Journal of Food Engineering 52 (1), 47-52. (Pubitemid 34110094)
72. Maroulis, Z.B., Saravacos, G.D., Panagiotou, N.M., Krokida, M.K., 2001. Moisture diffusivity data compilation for foodstuffs: effect of material moisture content and temperature. International Journal of Food Properties 4 (2), 225-237. (Pubitemid 32866659)
73. Marousis, S.N., Karathanos, V.T., Saravacos, G.D., 1991. Effect of physical structure of starch materials on water diffusivity. Journal of Food Processing and Preservation 15 (3), 183-195.
74. McCabe, W.L., Smith, J.C., Harriott, P., 2005. Unit Operations of Chemical Engineering, 7th ed. McGraw-Hill, Boston.
75. Miles, C.A., Mayer, Z., Morley, M.J., Houska, M., 1997. Estimating the initial freezing point of foods from composition data. International Journal of Food Science and Technology 32 (5), 389-400.
76. Miles, C.A., Van Beek, G., Veerkamp, C.H., 1983. Calculation of thermophysical properties of foods. In: Jowitt, R., Escher, F., Hallstorm, B., Mehffert, H.F.T., Sp iess, W.E.L., Vos, G. (Eds.), Physical Properties of Foods. Applied Science Publishers, New York, pp. 269-312.
77. Murakami, E.G., Okos, M.R., 1989. Measurement and prediction of thermal properties of foods. In: Singh, R.P., Medina, A.G. (Eds.), Food Properties and Computer-Aided Engineering of Food Processing Systems. Kuwer Academic Publishers, Norwell, pp. 3-48.
78. Nasrallah, S.B., Perre, P., 1988. Detailed study of a model of heat and mass-transfer during convective drying of porous-media. International Journal of Heat and Mass Transfer 31 (5), 957-967. (Pubitemid 18633843)
79. Nelson, S.O., 1983. Density dependence of the dielectric-properties of particulate materials. Transactions of the ASABE 26, 1823-1825.
80. Nelson, S.O., 1994. Measurement of microwave dielectric-properties of particulate materials. Journal of Food Engineering 21 (3), 365-384.
81. Nesvadba, P., 1982. Methods for the measurement of thermal conductivity and diffusivity of foodstuffs. Journal of Food Engineering 1 (2), 93-113.
82. Nesvadba, P., Houska, M., Wolf, W., Gekas, V., Jarvis, D., Sadd, P.A., Johns, A.I., 2004. Database of physical properties of agro-food materials. Journal of Food Engineering 61 (4), 497-503.
83. Ni, H., Datta, A.K., 1999. Moisture, oil and energy transport during deep-fat frying of food materials. Food and Bioproducts Processing 77 (C3), 194-204. (Pubitemid 129567303)
84. Palaniappan, S., Sastry, S.K., 1991a. Electrical conductivity of selected juices: influences of temperature, solids content, applied voltage, and particle size. Journal of Food Process Engineering 14 (4), 247-260.
85. Palaniappan, S., Sastry, S.K., 1991b. Electrical conductivities of selected solid foods during ohmic heating. Journal of Food Process Engineering 14 (3), 221-236. (Pubitemid 21719049)
86. Perry, R.H., Green, D.W., 2008. Perry's Chemical Engineers' Handbook, 8th ed. McGraw-Hill, New York.
87. Pham, Q.T., 1987. Calculation of bound water in frozen food. Journal of Food Science 52 (1), 210-212.
88. Pham, Q.T., 1996. Prediction of calorimetric properties and freezing time of foods from composition data. Journal of Food Engineering 30 (1-2), 95-107. (Pubitemid 126380460)
89. Pham, Q.T., Willix, J., 1989. Thermal-conductivity of fresh lamb meat, offals and fat in the range -40-Degrees-C to +30-Degrees-C - measurements and correlations. Journal of Food Science 54 (3), 508-515.
90. Poling, B.E., Prausnitz, J.M., O'Connell, J.P., 2001. The Properties of Gases and Liquids, 5th ed. McGraw-Hill, New York.
91. Prakash, A., Nelson, S.O., Mangino, M.E., Hansen, P.M.T., 1992. Variation of microwave dielectric-properties of hydrocolloids with moisture-content, temperature and stoichiometric charge. Food Hydrocolloids 6 (3), 315-322.
92. Rahman, M.S., 2003. A theoretical model to predict the formation of pores in foods during drying. International Journal of Food Properties 6 (1), 61-72.
93. Rahman, M.S., 2009. Food Properties Handbook, 2nd ed. CRC Press, Boca Raton.
94. Rahman, M.S., Chen, X.D., Perera, C.O., 1997. An improved thermal conductivity prediction model for fruits and vegetables as a function of temperature, water content and porosity. Journal of Food Engineering 31 (2), 163-170. (Pubitemid 127418057)
95. Rahman, S., 1995. Food Properties Handbook. CRC Press, Boca Raton, FL.
96. Rakesh, V., Datta, A.K., 2011. Microwave puffing: determination of optimal conditions using a coupled multiphase porous media - large deformation model. Journal of Food Engineering 107 (2), 152-163.
97. Rao, M.A., 1999. Rheology of Fluid and Semisolid Foods: Principles and Applications. Aspen Publishers, Gaithersburg, MD.
98. Rao, M.A., 2005. Rheological properties of fluid foods. In: Rao, M.A., Rizvi, S.S.H., Datta, A.K. (Eds.), Engineering Properties of Foods, third ed. CRC Press, Boca Raton, pp. 41-91.
99. Rao, M.A., Rizvi, S.S.H., Datta, A.K., 2005. Engineering Properties of Foods, third ed. CRC Press, Boca Raton.
100. Rossen, J.L., Hayakawa, K., 1977. Simultaneous heat and moisture transfer in dehydrated food: a review of theoretical models. AIChE Symposium Series 163 (73), 71-81.
101. Saltzman, M.W., 2001. Drug Delivery: Engineering Principles for Drug Delivery. Oxford University Press, New York, USA.
102. Saravacos, G.D., Maroulis, Z.B., 2001. Transport Properties of Foods. CRC Press, New York.
103. Sastry, S., 2005. Electrical Conductivity of Foods, Engineering Properties of Foods, CRC Press, Boca Raton, Florida.
104. Scherer, G.W., 1990. Theory of drying. Journal of the American Ceramic Society 73 (1), 3-14.
105. Schwartzberg, H.G., 1976. Effective heat-capacities for freezing and thawing of food. Journal of Food Science 41 (1), 152-156.
106. Sereno, A.M., Hubinger, M.D., Comesa, J.F., Correa, A., 2001. Prediction of water activity of osmotic solutions. Journal of Food Engineering 49 (2-3), 103-114. (Pubitemid 32426669)
107. Singh, R.P., Mannapperuma, J.D., 1990. Developments in food freezing. In: Schwartzberg, H.G., Rao, M.A. (Eds.), Biotechnology and Food Process Engineering. Marcel Dekker, New York, pp. 309-358.
108. Sipahioglu, O., Barringer, S.A., 2003. Dielectric properties of vegetables and fruits as a function of temperature, ash, and moisture content. Journal of Food Science 68 (1), 234-239. (Pubitemid 36238232)
109. Sosa-Morales, M.E., Valerio-Junco, L., Lopez-Malo, A., Garcia, H.S., 2010. Dielectric properties of foods: reported data in the 21st century and their potential applications. LWT - Food Science and Technology 43 (8), 1169-1179.
110. Souci, S.W., Fachmann, W., Kraut, H., Scherz, H., Senser, F., 2000. Food composition and nutrition tables, sixth rev. and completed ed. CRC Press, Stuttgart, Boca Raton.
111. Steffe, J.F., 1996. Rheological Methods in Food Process Engineering, 2nd ed. Freeman, East Lansing.
112. Stogryn, A., 1971. Equations for calculating dielectric constant of saline water. IEEE Transactions on Microwave Theory and Techniques 19 (8), 733.
113. Sun, E., Datta, A.K., Lobo, S., 1995. Composition based prediction of dielectric properties of foods. Journal of Microwave Power and Electromagnetic Energy 30 (4), 205-212.
114. Tanaka, H., 2000. Simple physical model of liquid water. Journal of Chemical Physics 112 (2), 799-809.
115. Tanikawa, W., Shimamoto, T., 2009. Comparison of Klinkenberg-corrected gas permeability and water permeability in sedimentary rocks. International Journal of Rock Mechanics and Mining Sciences 46 (2), 229-238.
116. Tchigeov, G., 1956. Problems of the Theory of Food Freezing. Food Industry, Moscow, 142pp (in Russian).
117. Tchigeov, G., 1979. Thermophysical Processes in Food Refrigeration Technology. Food Industry, Moscow, 272pp (in Russian).
118. Towler, G.P., Sinnott, R.K., 2008. Chemical Engineering Design Principles, Practice and Economics of Plant and Process Design. Elsevier, Butterworth-Heinemann, Amsterdam, Boston.
119. Troygot, O., Saguy, I.S., Wallach, R., 2011. Modeling rehydration of porous food materials: I. Determination of characteristic curve from water sorption isotherms. Journal of Food Engineering 105 (3), 408-415.
120. Tseng, Y.C., Moreira, R., Sun, X., 1996. Total frying-use time effects on soybean-oil deterioration and on tortilla chip quality. International Journal of Food Science and Technology 31 (3), 287-294.
121. Tulsiyan, P., Sarang, S., Sastry, S.K., 2008. Electrical conductivity of multicomponent systems during ohmic heating. International Journal of Food Properties 11 (1), 233-241. (Pubitemid 351332113)
122. Van Den Berg, C., Bruin, S., 1981. Water activity and its estimation in food systems: theoretical aspects. In: Rockland, L.B., Steward, G.F. (Eds.), Water Activity: Influences on Food Quality. Academic Press, New York.
123. van der Sman, R.G.M., 2008. Prediction of enthalpy and thermal conductivity of frozen meat and fish products from composition data. Journal of Food Engineering 84 (3), 400-412. (Pubitemid 47302537)
124. van der Sman, R.G.M., Boer, E., 2005. Predicting the initial freezing point and water activity of meat products from composition data. Journal of Food Engineering 66 (4), 469-475.
125. van der Sman, R.G.M., Meinders, M.B.J., 2011. Prediction of the state diagram of starch water mixtures using the Flory-Huggins free volume theory. Soft Matter 7 (2), 429-442.
126. Vargaftik, N.B., 1975. Tables on Thermophysical Properties of Liquids and Gases, 2nd ed. Hemisphere, Washington, DC.
127. Vitali, A.A., Rao, M.A., 1984. Flow properties of low-pulp concentrated orange juice - effect of temperature and concentration. Journal of Food Science 49 (3), 882-888.
128. Wallach, R., Troygot, O., Saguy, I.S., 2011. Modeling rehydration of porous food materials: II. The dual porosity approach. Journal of Food Engineering 105 (3), 416-421.
129. Wang, J.F., Carson, J.K., North, M.F., Cleland, D.J., 2006. A new approach to modelling the effective thermal conductivity of heterogeneous materials. International Journal of Heat and Mass Transfer 49 (17-18), 3075-3083. (Pubitemid 43902828)
130. Wang, Z.H., Chen, G.H., 1999. Heat and mass transfer during low intensity convection drying. Chemical Engineering Science 54 (17), 3899-3908.
131. Wang, W.C., Sastry, S.K., 1997b. Changes in electrical conductivity of selected vegetables during multiple thermal treatments. Journal of Food Process Engineering 20 (6), 499-516. (Pubitemid 127617098)
132. Weerts, A.H., Lian, G., Martin, D.R., 2003. Modeling the hydration of foodstuffs: temperature effects. AiChe Journal 49 (5), 1334-1339. (Pubitemid 36583126)
133. Wu, H., Kolbe, E., Flugstad, B., Park, J.W., Yongsawatdigul, J., 1998. Electrical properties of fish mince during multi-frequency ohmic heating. Journal of Food Science 63 (6), 1028-1032. (Pubitemid 29025751)
134. Yang, W.H., Rao, M.A., 1998. Transient natural convection heat transfer to starch dispersion in a cylindrical container: numerical solution and experiment. Journal of Food Engineering 36 (4), 395-415.
135. Zhu, S.M., Zareifard, M.R., Chen, C.R., Marcotte, M., Grabowski, S., 2010. Electrical conductivity of particle-fluid mixtures in ohmic heating: Measurement and simulation. Food Research International 43 (6), 1666-1672.
136. Zogzas, N.P., Maroulis, Z.B., 1996. Effective moisture diffusivity estimation from drying data. A comparison between various methods of analysis. Drying Technology 14 (7-8), 1543-1573. (Pubitemid 126546151)