Effect of Processing on the Secondary Haze Formation in Clarified Apple Juice

Article Preview

Abstract:

Compositions that related to the secondary haze compositions in clarified apple juice were studied. Pressing treatment, pasteurization and enzymatic treatment were mainly investigated. Turbidity, contents of phenolics components, and that of soluble proteins in three batches of apple juice were monitored at intervals during the processing procedures. Pressing treatment resulted in increasing the turbidity and contents of total phenolics, condensed tannins, soluble proteins, but decreasing the level of low molecular- weight phenolics in apple juice. Pasteurization had effects on increasing the level of turbidity and decreasing the level of soluble proteins and had little effects on the level of phenolics components in apple juice. Enzymatic treatment resulted in decreasing the turbidity and the levels of catechin, epicatechin, chlorogenic acid, procyanidins B2 and condensed tannins and increasing the level of soluble proteins in apple juice. It will help to control the secondary haze formation in apple juice production.

You might also be interested in these eBooks

Info:

Periodical:

Advanced Materials Research (Volumes 634-638)

Pages:

1464-1468

Citation:

Online since:

January 2013

Export:

Price:

Permissions CCC:

Permissions PLS:

Сopyright:

© 2013 Trans Tech Publications Ltd. All Rights Reserved

Share:

Citation:

[1] Qi,J.H,Cai,T.Y,Xu,et al. J of Food Processing and Engineering, Vol.34 (2011).pp.1793-1803(in Chinese)

Google Scholar

[2] Qi J H, Cai T Y,Wang F etal. Transactions of the Chinese Society of Agricultural Engineering,Vol. 23(2007).pp.247-251. (in Chinese)

Google Scholar

[3] Beveridge T, Tait V. Food Struct, Vo;.12(1993).pp.195-198

Google Scholar

[4] Boye J I,Ma CY.,Harwalkar VR. Marcel Dekker Inc, New York (1997)

Google Scholar

[5] Ajay P,Farhath K. Journal of food science and technology, Vol.48(2011).pp.560-568

Google Scholar

[6] Siebert K J, Troukhanova N V, Lynn Y P. J of Agric and Food Chem., Vol.44(1996).pp.80-85

Google Scholar

[7] Fukumoto LR, Delaquis P, Girard B. Journal of Food Science, Vol.63 (1998).pp.845-850

Google Scholar

[8] Cliff MA, Fukumoto LR, King MC etal .Journal of Food Quality,Vol.23(2000).pp.171-184

Google Scholar

[9] Brillouet JM, Williams P, Will F etal . Carbohydrate Polymers, Vol.29 (1996).pp.271-275

Google Scholar

[10] Boye J I. Recent Research in Development of Agricultural and Foodchemistry, Vol.3 (1999).pp.85-107

Google Scholar

[11] Hsu JC, Heatherbell DA. American Journal of Enology and Viticulture,Vol.38 (1987).pp.6-10

Google Scholar

[12] Kahkonen M P, Hpoia AI, Vuorela HJ etal. Journal of Agriand Food Chem, Vol.47 (1999).pp.3954-3962

Google Scholar

[13] Vanburen JP, Way RO .Journal of Food Science, Vol.43 (1978).p.1235–1237

Google Scholar

[14] Bhattacherjee A,Tandon D.,Dikshit A, et al. Journal of food science and technology, Vol.48 (2011).pp.269-273

Google Scholar

[15] Hsu JC, Heatherbell DA,Yorgey BM. Journal of Food Science,Vol.54(1989).p.660–662

Google Scholar

[16] Klavans J A, Bennett R D. Journal of Agriculture and Food Chemistry, Vol.35 (1987).pp.159-161

Google Scholar

[17] Beveridge T, Tait V. Food Structure,Vol. 12 (1993).pp.195-198

Google Scholar

[18] Spanos G A, Wrolstad R E, Heatherbell D A.Journal of Agri and Food Chem, Vol.38 (1990). pp.1572-1579

Google Scholar