Research on Detecting Aluminum in Jellyfish by Flame Atomic Absorption Method

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Abstract:

The flame atomic absorption method was applied to determine aluminum in jellyfish. The optimum detecting conditions were determined through many experiments. It established a nitric oxide-acetylene flame atomic absorption method to detect aluminum content in jellyfish that a good linear relationship is obtained in concentration range and correlation coefficient r2=0.9996. There are no significant differences in results after jellyfish samples were digested by three pretreatment methods. The detection limit of this method is 3.5 mg/L, the relative standard deviations are less than 5%, and the recovery is in the range of 88.50~104.20%. The test shows that: both the precision and accuracy accord with the demands, so this instrument analytical method could apply to research on quantitative detection of aluminum in jellyfish.

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Advanced Materials Research (Volumes 1033-1034)

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732-737

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October 2014

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© 2014 Trans Tech Publications Ltd. All Rights Reserved

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[1] Xianqing Yang, Laihao Li, Yanyan Wu, e. al. South China Fisheries Science. Vol. 1(2005), pp.46-50. In Chinese.

Google Scholar

[2] Xijia Zhang, Xiao Wei, Zhenghai Liu, e. al. Shandong Fisheries. Vol. 24(2007), pp.46-47. In Chinese.

Google Scholar

[3] Hu Ye, Ying Chen, Xiaofeng Zhao, e. al. Chinese Journal of Food Hygiene. Vol. 25(2013), pp.268-271. In Chinese.

Google Scholar

[4] Bohu Chen, Bafang Li, Zhiheng Xu, e. al. Journal of Anhui Agricultural Sciences. Vol. 38(2010), pp.9045-9047. In Chinese.

Google Scholar

[5] Jianwei Cen, Laihao Li, Xianqing Yang, e. al. South China Fisheries Science. Vol. 6(2010), pp.7-11. In Chinese.

Google Scholar

[6] Qi Jiang, Qiong Huang, Yonghui Zhang. Chinese Journal of Food Hygiene. Vol. (2013), p.29. In Chinese.

Google Scholar

[7] Hong Wang, Lantian Zhang. The Food Industry. Vol. 33(2012), pp.191-194. In Chinese.

Google Scholar

[8] Chan Zhang, Hongbin Wang, Meigui Shen. Chinese Journal of Spectroscopy Laboratory. Vol. (2013), pp.746-750. In Chinese.

Google Scholar

[9] Jianwei Cen, Laihao Li, Xianqing Yang, e. al. Food Science. Vol. 29(2008), pp.481-484. In Chinese.

Google Scholar

[10] Wei Jiang, Hong Tang, Chunhua Li, e. al. Chinese Journal of Health Laboratory. Vol. 18(2008), pp.85-86. In Chinese.

Google Scholar

[11] Min Li, Ziwen Wang. Chinese Journal of Health Laboratory. Vol. 21(2011), pp.1882-1883. In Chinese.

Google Scholar

[12] Shihong Sun, Shexia Zhan, Lin Zhu. Journal of Southern Medical University. Vol. 28(2008), p.431. In Chinese.

Google Scholar

[13] Lifan Zhao, Hongbing Tang, Ying Wu, e. al. Journal of Environmental Hygiene. Vol. 3(2013), pp.245-247. In Chinese.

Google Scholar

[14] Pham Thi Huynh M, Carrot F, Chu Pham Ngoc S, e al. Journal of radio analytical and nuclear chemistry. Vol. 217(1997), pp.95-99.

DOI: 10.1007/bf02055355

Google Scholar

[15] Zhifeng Zhang, Feng Gai, Jun Yan, e. al. Chinese Journal of Analysis Laboratory. Vol. 26(suppl)(2008), pp.290-293. In Chinese.

Google Scholar

[16] Gengsheng Jiao, Mintuan Dang, Bingzhi Liu. Chinese Journal of Analysis Laboratory. Vol. 27(2008), pp.33-35. In Chinese.

Google Scholar

[17] Erdemoǧlu S B, Pyrzyniska K, Güçer Ş. Analytica Chimica Acta. Vol. 411(2000), pp.81-89.

DOI: 10.1016/s0003-2670(00)00784-4

Google Scholar

[18] Jie Sun, Jia Zhu, Henglin Yu. Food and Machinery. Vol. 28(2012), pp.63-65. In Chinese.

Google Scholar

[19] Meiqin Zhang, Ling Luo, Haiqian Chen, e. al. Food Science. Vol. 32(2011), pp.156-159. In Chinese.

Google Scholar

[20] Willis J B. Nature. Vol. 207(1965), pp.715-716.

Google Scholar

[21] Willis J B. Spectrochimica Acta. Vol. 26(1971), pp.177-189.

Google Scholar