Abstract
Three freezing-point regulators (glycine, sodium chloride and D-sorbitol) were employed to optimize thermophysical properties of Pacific white shrimp (Litopenaeus vannamei) using response surface methodology (RSM). The independent variables were glycine content (0.250–1.250 %), sodium chloride content (0.500–2.500 %) and D-sorbitol content (0.125–0.625 %) and analysis of variance showed that the effects of glycine, sodium chloride and D-sorbitol on the thermophysical properties were statistically significant (P < 0.05). The coefficient of determination, R 2 values for initial freezing point (T i ), unfreezable water mass fraction (W u ), apparent specific heat (C app ) and Enthalpy (H) were 0.896 ~ 0.999. The combined effects of these independent variables on T i , W u , C app and H were investigated. The results indicated that T i , C app and H varied curvilinearly with increasing of glycine, sodium chloride and D-sorbitol content whereas W u increased nearly linearly. Based on response plots and desirability functions, the optimum combination of process variables for Pacific white shrimp previously treated with freezing-point regulators were 0.876 % for glycine content, 2.298 % for sodium chloride content and 0.589 % for D-sorbitol content, correspondently the optimized thermophysical properties were T i , − 5.086 °C; W u , 17.222 %; C app , 41.038 J/g °C and H, 155.942 J/g, respectively. Briefly, the application of freezing-point regulators depressed T i and obtained the optimum W u , C app and H, which would be obviously beneficial for the exploitation of various thermal processing and food storage.
Similar content being viewed by others
References
Arora JS (2011) Introduction to optimum design, 3rd edn. Elsevier Academic Press, USA
Auh JH, Kim YR, Cornillon P, Yoon J, Yoo SH, Park KH (2003) Cryoprotection of protein by highly concentrated branched oligosaccharides. Int J Food Sci Tech 38:553–563
Bak LS, Andersen AB, Andersen EM, Bertelsen G (1999) Effect of modified atmosphere packaging on oxidative changes in frozen stored cold water shrimp (Pandalus borealis). Food Chem 64:169–175
Becker BR, Fricke BA (1999) Food thermophysical property models. Int Commun Heat Mass 26:627–636
Chinese standard GB/T5009.3-2010 (2010) National food safety standard: determination of moisture in foods. Standards Press of China, Beijing
Cogne C, Andrieu J (2003) Experimental data and modeling of thermal properties of ice creams. J Food Eng 58:331–341
Cui HB, Xue CH, Xue Y, Su W, Li ZJ, Cong HH (2013) Development of shelf-stable, ready-to-eat (RTE) shrimps (Litopenaeus vannamei) using water activity lowering agent by response surface methodology. J Food Sci Technol 50:1137–1143
De Oliveira GA, Zanoelo EF (2012) Thermophysical properties of hydrolyzed by-products from the meat industry. J Food Process Eng 35:930–939
Eren I, Kaymak-ertekin F (2007) Optimization of osmotic dehydration of potato using response surface methodology. J Food Eng 79:344–352
Fikiin KA, Fikiin AG (1999) Predictive equations for thermophysical properties and enthalpy during cooling and freezing of food materials. J Food Eng 40:1–6
Fricke BA, Becker BR (2002) Food Freezing times and heat transfer coefficients. Mechanical Engineering, University of Missouri-Kansas City.
Fukuma Y, Mishima M, Yamane A (1998) High qualification of horse mackerel by ‘Hyo-on’ treatment. J Hyo-on Res 1:9–14
Hamdami N, Monteau JY, Le Bail A (2004a) Thermophysical properties evolution of French partly baked bread during freezing. Food Res Int 37:703–713
Hamdami N, Monteau JY, Le Bail A (2004b) Transport properties of a high porosity model food at above and sub-freezing temperature. Part1: thermophysical properties and water activity. J Food Eng 62:373–383
Herrera JR, Mackie IM (2004) Cryoprotection of frozen-stored actomyosin of farmed rainbow trout (Oncorhynchus mykiss) by some sugars and polyols. Food Chem 81:91–97
Jeyasekaran G, Ganesan P, Anandaraj R, Jeya Shakila R, Sukumar D (2006) Quantitative and qualitative studies on the bacteriological quality of Indian white shrimp (Penaeus indicus) stored in dry ice. Food Microbiol 23:526–533
Karunakar B, Mishra SK, Bandyopadhyay S (1998) Specific heat and thermal conductivity of shrimp meat. J Food Eng 37:345–351
Kovačević D, Mastanjević K, Suman K, Qetay L (2007) Effect of polydextrose and κ-carrageenan on initial freezing point of chicken surimi. Poljoprivreda 13:201–204
Liu ZH (2000) Analytical chemistry handbook (thermal analysis). Chemical Industry Press, Beijing
Liu R, Lu CX, Xiong SB, Zhang SM, Gong T (2009) Modelling for the thermal parameters of freshwater fish musles during low temperature phase transition. Trans CSAE 25:256–260 (In Chinese)
Lu CX, Zhao SM, Xiong SB (2007) Thermophysical properties of silver carp meat during phase transition. Trans CSAE 23:39–43 (In Chinese)
Marcotte M, Taherian AR, Karimi Y (2008) Thermophysical properties of processed meat and poultry products. J Food Eng 88:315–322
Miles CA, Mayer Z, Morley MJ, Houška M (1997) Estimating the initial freezing point of foods from composition data. Int J Food Sci Tech 32:389–400
Mossel DAA, Corry JEL, Struik CB, Baird RM (1995) Essentials of the microbiology of foods: a textbook for advanced studies. Wiley, Chichester
Ngadi MO, Mallikarjunan P, Chinnan MS, Radhakrishnan S, Hung YC (2000) Thermal properties of shrimps, French toasts and breading. J Food Process Eng 23:73–87
Ngadi MO, Chinnan MS, Mallikarjunan P (2003) Enthalpy and heat capacity of fried shrimp at freezing and refrigeration temperatures. Food Sci Technol 36:75–81
Oosterveer P (2006) Globalization and sustainable consumption of shrimp: consumers and governance in the global space of flows. Int J Nurs Stud 30:465–476
Otero L, Guignon B, Aparicio C, Sanz PD (2010) Modeling thermophysical properties of food under high pressure. Int J Food Sci Tech 50:344–368
Pighin DG, Sancho AM, Gonzalez CB (2008) Effect of salt addition on the thermal behavior of proteins of bovine meat from Argentina. Meat Sci 79:549–556
Qian YF, Xie J, Yang SP, Wu WH (2013) Study of the quality changes and myofibrillar proteins of white shrimp (Litopenaeus vannamei) under modified atmosphere packaging with varying CO2 levels. Eur Food Res Technol 236:629–635
Rahman MS, Guizani N, Al-Khaseibi M, Ali Al-Hinai S, Al-Maskri SS, Al-Hamhami K (2002) Analysis of cooling curve to determine the end point of freezing. Food Hydrocoll 16:653–659
Ribero GG, Rubiolo AC, Zorrilla SE (2007) Initial freezing point of Mozzarella cheese. J Food Eng 81:157–161
Santana FF, Augusto PED, Cristianini M (2013) Thermal properties characterization of moist pet food: proximate analysis and thermo-physical properties and thermal resistance of Clostridium sporogenes. J Food Process Pres 37:126–132
Shi QL, Xue CH, Zhao Y, Li ZJ, Wang XY, Luan DL (2008) Optimization of processing parameters of horse mackerel (Trachurus japonicus) dried in a heat pump dehumidifier using response surface methodology. J Food Eng 87:74–81
Smolinska T, Gawronska B, Malecha M (1995) Effect of cryoprotectants and frozen storage on ultrastructural and electrophoretic picture of MDTM proteins. Arch Geflügelkunde 59:257–261
Tang QY (2006) Data Processing System (including DPS software version 9.50). Science Press, Beijing
Tocci AM, Mascheron RH (2008) Some thermal properties of fresh and osmotically dehydrated kiwifruit above and below the initial freezing temperature. J Food Eng 88:20–27
Tocci AM, Flores ESE, Mascheroni RH (1997) Enthalpy, heat capacity and thermal conductivity of boneless mutton between – 40 °C and + 40 °C. Food Sci Technol 30:184–191
Tornberg E (2005) Effects of heat on meat proteins–Implications on structure and quality of meat products. Meat Sci 70:493–508
van der Sman RGM (2008) Prediction of enthalpy and thermal conductivity of frozen meat and fish products from composition data. J Food Eng 84:400–412
van der Sman RGM, Boer E (2005) Predicting initial freezing point and water activity of meat products from composition data. J Food Eng 66:469–475
Wang DQ, Kolbe E (1991) Thermal properties of surimi analysed using DSC. J Food Sci 56:302–308
Wang L, Zeng MY (2009) Current situation and development trend of fresh-keeping technology in shrimp. Food Ferment Ind 9:111–115 (In Chinese)
Wang L, Zeng MY, Dong SY, Liu ZY, Zhao YH (2010) Microbiological changes in shrimp (Litopenaeus vannamei) of various packaging conditions during controlled freezing-point storage. Food Ferment Ind 3:196–201 (In Chinese)
Weska RF, Moura JM, Batista LM, Rizzi J, Pinto LAA (2007) Optimization of deacetylation in the production of chitosan from shrimp wastes: use of response surface methodology. J Food Eng 80:749–753
Wolfe J, Bryant G, Koster KL (2002) What is unfreezable water, how unfreezable is it and how much is there? Cryoletters 23:157–166
Xu L (2007) Operational guideline to differential scanning calorimeter (DSC200PC). Netzsch Application Laboratory, Germany
Yamane A (1996) Modernized transportation and marketing for food by controlled freezing-point storage. Food Ingredients J Jpn 170:60–65
Acknowledgments
This research was supported by the National Key Technology R&D Program of China (2012BAD28B05); National Natural Science Foundation of China (31071613); International S&T Cooperation Projects of China (2010DFB33930).
Author information
Authors and Affiliations
Corresponding author
Rights and permissions
About this article
Cite this article
Wang, L., Liu, Z., Zhao, Y. et al. Optimization of thermophysical properties of Pacific white shrimp (Litopenaeus vannamei) previously treated with freezing-point regulators using response surface methodology. J Food Sci Technol 52, 4841–4851 (2015). https://doi.org/10.1007/s13197-014-1594-1
Revised:
Accepted:
Published:
Issue Date:
DOI: https://doi.org/10.1007/s13197-014-1594-1