Feasibility of Preservative-free Mayonnaise Production by Ultrasonication: Evaluation of Physicochemical and Sensorial Properties of the Product During the Shelf Life

Document Type : Research Article

Authors

1 Ph.D. Student, Department of Food Science and Technology, Faculty of Agriculture, Islamic Azad University, Sanandaj, Kurdistan

2 Faculty of Food Science and Technology, Bu-Ali Sina University of Hamedan, Hamedan, Iran

3 Assistant Professor, Department of Food Science and Technology, Faculty of Agriculture, Islamic Azad University, Sanandaj, Kurdistan

4 department of food science and technology, college of food science, Bualisina University

Abstract

The effects of high-power ultrasound treatment (20 kHz, 750 W, 20 ℃, 5 min) on low-fat mayonnaise were studied to evaluate the oxidation of lipids and fatty acids profile during the 6 months shelf life. The main oxidation parameters including peroxide value, acidity, Thiobarbituric acid, Totox value and fatty acids profile were studied. Also, sensorial properties and emulsion stability at 4℃ and in the accelerated temperature of 50 ℃ in mayonnaise treatments of (without preservatives and with ultrasonication, without preservatives and without ultrasonication, and with preservatives and without ultrasonication) were evaluated during 1, 90 and 180 days after production. The results showed that all samples had good apparent stability and no traces of oil separation were observed. The results of gas chromatography showed that sonication treatment significantly reduced the amount of palmitic acid (7.33 %), alpha-linolenic acid (2.04 %), stearic acid (3.91 %), and poly-unsaturated fatty acids (58.15 %) that in control were (9.44 %, 4.81%, 4.27 %, 59.09 %) respectively, and in contrast, the amount of oleic acid (25.26 %) and linoleic acid (55.91 %) in sonicated treatment increased during the shelf life that compared to the control treatments were (22.47%) and (53.93%) respectively. Also, ultrasonication increased peroxide and acidity value, so that, at the first day, the maximum amount of peroxide value (3.54 meq O2/kg oil) that in control were (2.26 meq O2/kg oil) and maximum amount of acidity of oil (0.19 %) that compares to control were (0.113%) was related to sonicated treatment. Also, the lowest amount of thiobarbituric acid (26.03) and totox value (33.11) which indicates the total oxidation of the product occurred in sonicated treatment, which had a significant reduction that in cintrol were (45.13%) and (118.83%) respectively, these values had an upward trend with increasing storage time.

Graphical Abstract

Feasibility of Preservative-free Mayonnaise Production by Ultrasonication: Evaluation of Physicochemical and Sensorial Properties of the Product During the Shelf Life

Highlights

  • In this study, Ultrasonication was replaced with traditional preservatives of low-fat mayonnaise.
  • Shelf life of low-fat mayonnaise increased with its ultrasonication.
  • With ultrasonication, it is possible to lower the oxidation rate and maintain the fatty acids profile of low-fat mayonnaise in standard range.
  • Ultrasonication decreased thiobarbituric value in comparison with blank, and sensorial properties of ultrasonicated low-fat mayonnaise improved during the shelf life.

Keywords

Main Subjects

References

[1] ISIRI. Institute of S. and I. R. of. Iran. (1996). Food preservatives, No 950, 2nd revision. [In Persian]
 [2] Sohrabi, D., Alipour, M.,Gholami, M. (2008).The effect of sodium benzoate on testicular tissue, gonadotropins and thyroid hormones level in adult (balb/c) mice. FEYZ., 12 (3), 7-11. [In Persian]
[3] Taheri, S. H., & Sohrabi, D. (2002).Teratogenic Effects of Sodium Benzoate on the Rat Fetus. J. Adv. Med. Biomed. Res., 10 (39), 1-4. [In Persian]
[4] Mesbahi, G. R., Jamalian, J., & Golkari, H. (2004). Substitution of tragacanth in mayonnaise for imported stabilizers and thickeners. JWSS, 8 (2), 191-205. [In Persian]
[5] Maghsodi, S. (2004). New technology for producing sauces: formulations, production and testing methods, mayonnaise, salad dressings (first ed.). Tehran, I. R. Iran, Marze Danesh. [In Persian]
[6] Povey, M. J. W., & Mason, T. J. (1998). Ultrasound in Food Processing, Springer, Berlin.
[7] Wu, H., Hulbert, G. J., & Mount, J. R. (2000). Effects of ultrasound on milk homogenization and fermentation with yogurt starter. IFSET., 1, 211-218.
[8] Mongenot, N., Charrier, S., & Chalier, P. (2000). Effect of ultrasound emulsification on cheese aroma encapsulation by carbohydrates. J. Agric. and Food Chem., 48, 861-867.
[9] Mason, T. J. (1998). Power ultrasound in food processing. Thomson Science, London, 105-126.
[10] Izquierdo, P., Esquena, J., Tadros, T. F., Dederen, C., Garcia, M. J., Azemar, N., & Solans, C. (2002). Formation and stability of nanoemulsions prepared using the phase inversion temperature method.  Langmuir, 18, 26-30.
[11] Dolatowski, Z. J., Stadnik, J., & Stasiak, D. (2007). Applications of ultrasound in food technology. Acta Sci. Pol. Technol. Aliment., 3, 88-99.
[12] Nestel, P. J. (2008). Effects of dairy fats within different foods on plasma lipids. J. Am. Coll. Nutr., 6, 735-740.
[13] Martin, C. A., Milinsk M. C., Visentainer, J. V., Matsushita, M., & de-Souza N. E. (2007). Trans fatty acid forming processes in foods: a review. An. Acad. Bras. Cienc., 2, 343-50.
[14] Akhtar, H., Tariq, I., Mahmood, S., Hamid, S., & Khanum, R. (2012). Effect of antioxidants on stability, nutritional values of refined sunflower oil during accelerated storage and thermal oxidation in frying. Bangladesh J. Sci. Ind. Res., 2, 223-230.
[15] Chemat, S., Lagha, A., AitAmar, H., Bartels, P. V., & Chemat, F. (2004). Comparison of conventional and ultrasound-assisted extraction of carvone and limonene from Caraway seeds. Flavour Frag. J., 3, 188-195.
[16] Pingret, D., Durand, G., Fabiano-Tixier, A., Rockenbauer, A., Ginies, C., & Chemat, F. (2012). Degradation of edible oil during food processing by ultrasound, electron paramagnetic resonance, physicochemical, and sensory appreciation. J. Agric. Food Chem., 31, 7761-7768.
[17] Chemat, F., Grondin, I., Costes, P., Moutoussamy, L., Shum Cheong Sing, A., & Smadja., J. (2004). High power ultrasound effects on lipid oxidation of refined sunflower oil. Ultrason. Sonochem., 11 (5), 281-285.
[18] Hosseini, S., Gharachorloo, M., Tarzi, B. G., Ghavami, M. & Bakhoda, H. (2015). Effects of ultrasound amplitude on the physicochemical properties of some edible oils. JAOCS., 12, 1717-1724.
[19] Patil, S. (2010). Efficacy of ozone and ultrasound for microbial reduction in fruit juice. Doctoral Thesis. Dublin Institute of Technology. doi: 10.21427/D78W2D.
[20] Asnaashari, M., Farhoosh, R. & Sharif, A. (2014). Antioxidant activity of gallic acid and methyl gallate in triacylglycerols of Kilka fish oil and its oil-in-water emulsion. Food Chem., 159, 439-444.
[21] Mun, S., Kim,Y. L., Kang, C., Shim, J., & Kim, Y. (2009). Development of reduced-fat mayonnaise using 4[alpha] GTase–modified rice starch and xanthan gum. Int. J. Biol. Macromol., 44, 400-407.
[22] Malek, F. (2000). Edible fats and vegetable oils: Properties and processing. (first ed). Tehran, I. R. Iran: Farhang Ghalam. [In Persian].
 [23] American Oil Chemists’ Society. (1997). Official Methods and Recommended Practices of the American Oil Chemist’s Society, (5th ed); AOCS. Press, Champaign, I.L., USA.
[24] ISIRI. Institute of Standard and Industrial Research of Iran. (2007). Animal and vegetable fats and oils- determination 2-Thiobarbituric acid value, direct method, No 10494, 1st ed. [In Persian].
[25] Wanasundara, U. N.  & Shahidi, F. (1995). Storage stability of microencapsulated seal blubber oil. J. Food Lipids., 2, 73-86.
[26] Granato, D., Calado, V. M. A., & Jarvis, B. (2014). Observations on the use of statistical methods in Food Science and Technology. IFRJ., 55, 137-149.
 
[27] Worrasinchai, S., Suphantharika, M., Pinjai, S., & Jamnong, P. (2005). β-Glucan prepared from spent brewer’s yeast as a fat replacer in mayonnaise. Food Hydrocolloid., 20, 68-78.
 [28] ISIRI. Institute of Standard and Industrial Research of Iran. (2000). Vegetable fats and oils- Soy bean oil- Specification and test methods, No 2392, 1st revision. [In Persian]
[29] Farahmandfar, R., Amini, A., Faghih Nasiri, Sh., & Asnaashari, M. (2018). Influence of Mentha piperita L. extract in the quality of soybean oil during microwave heating. JFST., 15, 201-216. [In Persian]
[30] Malheiro, R., Rodrigues, N., Manzke, G., Bento, A., Pereira, J. A. & Casal, S. (2013). The use of olive leaves and tea extracts as effective antioxidants against the oxidation of soybean oil under microwave heating. Ind. Crops Prod., 44, 37-43.
[31] Choe, E. & Min, D. B. (2006). Mechanisms and factors for edible oil oxidation. Comp. Rev. Food sci. Food Saf., 4, 169-186.
 [32] Rodrigues, N., Malheiro, R., Casal, S., Manzanera, M. C. A. S., Bento, A. & Pereira, J. A. (2012). Influence of spike lavender (Lavandula latifolia Med.) essential oil in the quality, stability and composition of soybean oil during microwave heating. Food chem. Toxicol., 8, 2894-2901.
[33] Martin-Polvillo, M., Marquez-Ruiz, G. & Dobarganes, M. C., (2004). Oxidative stability of sunflower oils differing in unsaturation degree during long-term storage at room temperature. JAOCS., 6, 577-583.
 
[34] Geleta, M., Stymne, S. & Bryngelsson, T. (2011). Variation and inheritance of oil content and fatty acid composition in Niger (Guizotia abyssinica). J. Food Compost. Anal., 7, 995-1003.
 [35] Chemat, F., Grondin, I., Sing, A. S. C. & Smadja, A. (2003). Deterioration of edible oils during food processing by ultrasound. Ultrason. Sonochem., 1, 13-15.
[36] Moigradean, D., Poiana, M. A. & Gogoasa, I. (2012). Quality characteristics and oxidative stability of coconut oil during storage. J. Agroaliment. Processes Technol., 4, 272-276.
[37] Jana, A. K., Agarwal, S., Chatterjee, N., & Biosci. J. (1990). Membrane lipid peroxidation by ultrasound: Mechanism and implications. J. Biosci., 15, 211-215.
[38] Halim, H. H. & Thoo, Y.Y. (2018). Effect of ultrasound treatment on oxidative stability of sunflower oil and palm oil. Int. Food Res. J., 5, 1959-1967.
[39] Poiana, M. A. (2012). Enhancing oxidative stability of sunflower oil during convective and microwave heating using grape seed extract. Int. J. Mol. Sci., 7, 9240-59.
[40] Guillen, M. D. & Cabo, N. (2002). Fourier transform infrared spectra data versus peroxide and anisidine values to determine oxidative stability of edible oils. Food Chem., 4, 503-510.
[41] Li K., Li Y., Liu, C. L., Fu, L., Zhao, Y. Y., Zhang, Y. Y., Wang, Y. T., & Bai, Y. H. (2020). Improving interfacial properties, structure and oxidative stability by ultrasound application to sodium caseinate prepared pre-emulsified soybean oil. LWT - Food Sci. Technol., 131, 109755.
 [42] Lee, J., Ye, Y. & Martini, S. (2014). Physicochemical and oxidative changes in sonicated interesterified soybean oil. JAOCS., 2, 305-308.
[43] Allen, L. B., Siitonen, P. H., Thompson, H. C. (1998). Determination of copper lead and nickel in edible oils by plasma and furnace atomic spectroscopies. JAOCS., 75, 477-481.
Innovative Food Technologies
Volume 8, Issue 1
November 2020
Pages 139-156

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History

  • Receive Date: 07 December 2020
  • Revise Date: 30 January 2021
  • Accept Date: 17 February 2021

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