CONDUCTIVIDAD TÉRMICA DE JUGOS CONCENTRADOS CÍTRICOS COMO UNA FUNCIÓN DE LA TEMPERATURA Y LA CONCENTRACIÓN
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Ramos, A. and Ibarz, A. Density of juice and fruit puree as a function of soluble solids content and temperature. Journal of food Engineering. 35: p. 57–63. 1998.
Crandall, P. G.; Chen, C. S. and Carter, R. D. Models for predicting viscosity of orange juice concentrate. Food Technology. 36: p. 245–252. 1982.
Choi, I. and Okos, M. R. The Thermal Properties of Liquid Foods–Review. Presented at the Winter Meeting ASAE. 83: p. 6516. 1983a.
Choi, I. and Okos, M. R. Thermal properties of liquid foods–Review. M.R. Okos, editor. Physical and Chemical Properties of Food New York. ASAE. p. 35–77. 1986.
Cuevas, R. and Cheryan, M. Thermal conductivity of liquid foods–Review. Journal Food Process Engineering. 2: p. 283–306. 1978.
Kolarov, K. and Gromov, M. A. Universal equation for the computing of thermal conductivity of fruit and vegetable juices and syrups. Khromitelna Promishlennost. 22: p. 33–39. 1973.
Qashou, M. S.; Vachon, R. I. and Touloukian, Y. W. Thermal conductivity of foods. ASHRAE Transactions. 78 (Part I): p. 165–183. 1972.
Assael, M. J.; Charitidou, E.; Georgiadis, G. P. And Wakeham, W. A. A transient hot–wire instrument for thermal conductivity measurements in electrically conducting liquids at elevated temperatures. International Journal Thermophys. 3: p. 225–235. 1982.
Choi, I. and Okos, M. R. The thermal properties of tomato juice concentrates. Transactions. ASAE. 26(1): p. 305–311. 1983b.
Constenla, D. T.; Lozano, J. E. and Crapiste, G. H. Thermophysical properties of clarifi ed apple juice as a function of concentration and temperature. Journal Food Science. 54: p. 663–668. 1989.
Gratao, A.; Junior, V.; Polizelli, M. and Telis Romero, J. Thermal properties of passion fruit juice as affected by temperature and water content. Journal Food Process Engineering. 27: p. 413–431. 2005.
Lau, A.; March, A.; Lo, K. and Cumming, D. Physical properties of celery juice. Canadian. Agricultural Engineering. 34: p. 105–110. 1992.
Moressi and Spinosi. Engineering factors in the production of concentrated fruit juices. 1: Fluid physical properties of orange juices. Journal Food Technology. 15: p. 265–276. 1980.
Riedel, L. Thermal conductivity measurements on sugar solutions, fruit juices and milk. Chemie Ingenieur Technik. 17/18: p. 340–341. 1949.
Venart, J. and Prasad, R.C. Thermal conductivity of water and oleum. Journal Chemical. Engineering. 25: p. 196–198. 1980.
Ziegler, G. R. and Rizvi, S. Thermal conductivity of liquids foods by thermal comparator method. Journal Food Science. 50: p. 1458–1462. 1985.
Romero, J.; Telis, V. R. N.; Gabas, A. L. and Yamashita, F. Thermophysical properties of Brazilian orange juice as affected by temperature and water content. Journal Food Engineering. 38:p. 27–40. 1998.
Abdulagatov, I. M. and Magomedov, U. B. Thermal conductivity measurements of aqueous SrCl2 and Sr (NO3)2 solutions in the temperature range between 293 and 473 K at pressures up to 100 MPa. International Journal Thermophys. 20: p. 187–196. 1999a.
Abdulagatov, I. M. and Magomedov, U. B. Measurements of thermal conductivity of aqueous CoCl2 solutions at pres sures up to 100 MPa by parallel–plate apparatus. Journal of Chemical Engineering Japan. 32: p. 465–471.1999b.
Abdulagatov, I. M. and Magomedov, U. B. Thermal conductivity of aqueous BaI2 solutions in the temperature range 293 and 473 K and the pressures range 0.1–100 MPa. Fluid Phase Equilibria. 171: p. 243–252. 2000.
Abdulagatov, I. M. and Magomedov, U. B. Thermal conductivity measurements of aqueous KI and KBr solutions at high temperatures and high pressures. Journal of Solution Chemistry. 30: p. 223–235. 2001.
Abdulagatov, I. M. and Magomedov, U. B. Thermal conductivity measurements of pure water and aqueous SrBr2 solutions at high temperatures and high pressures. High Temperature. 35/36: p.149–168. 2004.
Abdulagatov, I. M.; Akhmedova–Azizova, L. A. and Azizov, N. D. Thermal conductivity of aqueous Sr(NO3)2 and LiNO3 solutions at high temperatures and high pressures. Journal of Chemical Engineering. 49: p. 688–704. 2004a.
Abdulagatov, I. M.; Akhmedova–Azizova, L. A. and Azizov, N. D. Thermal conductivity of binary aqueous NaBr and KBr and ternary H2O+NaBr+KBr solutions at temperatures from 294 to 577 K and pressures up to 40 MPa. Journal of Chemical Engineering. 49: p. 1727–1737. 2004b.
Abdulagatov, I. M. and Azizov, N. D. Thermal conductivity and viscosity of the aqueous K2SO4 solutions at temperatures from 298 to 573 K and at pressures up to 30 MPa. International Journal Thermophys. 26: p. 593–635. 2005
Ramires, M. L. V. and Nieto de Castro, C. A. Thermal conductivity of aqueous potassium chloride solutions. International Journal Thermophys. 21: p. 671–679. 2000.