Extraction of Chondroitin Sulfate from Tilapia Byproducts with Ultrasonic-Microwave Synergistic

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The optimum conditions for the extraction and separation of chondroitin sulfate from tilapia (Oreochromis niloticus) byproducts were studied in the paper. The chondroitin sulfate was extracted by the combination of ultrasonic and microwave. On the basis of the single factor tests, the response surface methodology was taken to study the optimum process of extraction. Results show that the best conditions for the extraction and separation of chondroitin sulfate from tilapia byproducts are: the ultrasonic power is 50W, the microwave power is 98W, the extraction time is 120s, the ratio of solid to liquid is 1:50 (g/mL), and under these conditions, the extraction rate of chondroitin sulfate is 2.513%.

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Advanced Materials Research (Volumes 726-731)

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4381-4385

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August 2013

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© 2013 Trans Tech Publications Ltd. All Rights Reserved

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[1] A.O. Adebowale, S.C. Donna, Z.M. Liang, N.D. Eddington: Journal of American Nutraceutical Association, Vol.3(2000),p.37

Google Scholar

[2] J.S. Sim, G.J. Jun, T.Toida, S.Y. Cho: Journal of Chromatography B.,Vol.818(2005),p.133

Google Scholar

[3] S.Sakai, E.Otake, T.Toida, Y.Goda:Chem Pharm Bull., Vol.55(2007), p.299

Google Scholar

[4] R.M. Lauder, T.N. Huckerby, I.A. Nieduszynski: Glycobiology, Vol.10 (2000), p.393

Google Scholar

[5] P.A.S. Mourao, M.S. Pereira, M.S.G,Pavao, B.Mulloy: Journal of Biological Chemistry, Vol.271 (1996),p.23973

Google Scholar

[6] X.B.Su, A.J. Liu:Science and technology of food industry, Vol.25(2004), p.98

Google Scholar

[7] X.J. Zhang, H.Zhang, Science and technology of food industry, Vol.31(2010),p.258

Google Scholar

[8] H.Zhang, G.H. Xie, D.Z. Mao, B.H.He: Food Science, Vol.30(2009),p.231

Google Scholar

[9] H.Y. Luo: Food Science, Vol.25(2004),p.135

Google Scholar

[10] C.Li, Z.H. Duan: Food Science and technology, Vol.35(2010),p.235

Google Scholar

[11] C.Y. Cheng, Z.H. Duan, J. Fan, K.G. Zhou: Food science and technology, Vol.36(2011), p.213

Google Scholar

[12] A.C.Gu, C.Li, L.Xiao: Food Research and Development, Vol.28(2007), p.30

Google Scholar

[13] S.L. Xiong, A.L.Li, Z.M.Wu, M.Wei: Transactions of the CSAE, Vol.25 (2009),p.271

Google Scholar

[14] S.Rodrigues, G.A.S. Pinto: Journal of Food Engineering, Vol.80 (2007),p.869

Google Scholar

[15] Z.H. Duan, L.N. Jiang, J.L. Wang: Food and Bioproducts Processing, Vol.89 (2011), p.472

Google Scholar

[16] W.K. Jung, P.J. Park, H.G. Byun, S.H. Moon: Food Chemsitry,Vol.91(2005),p.333

Google Scholar

[17] Z.H. Duan, M.H.Yi: Fisheries Science & Technology Information, Vol.32(2005),p.250

Google Scholar

[18] Z.H. Duan, J.L. Wang, M.H.Yi: Journal of Food Process Engineering, Vol.33 (2010),p.962

Google Scholar

[19] Y.P. Kotzamanis, M.N. Alexis: Aquaculture Research, Vol.32(2001),p.288

Google Scholar

[20] Y.Liang, M.M. Ying, Y.H.Lu, X.Y.Lu: Transactions of the CSAE, Vol.22(2006),p.159

Google Scholar

[21] G.Q. Liu, Q.Z. Ling, J.F. Sun: Food Science, Vol.29(2007), p.283

Google Scholar

[22] Z.D.Yu, G.M. Yang, H.Gao, K.Liu: Journal of Qinghai University (Natural Science Edition), Vol.23(2005), p.41

Google Scholar