Research on the Transformation and Accumulation of Nickel through Soil-Crop Continuum in Black Soil of Jilin Province

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Abstract:

Based on the systematic fieldwork and the sampling of soil and corn, this paper studied the geochemical characteristic and the characteristic of total and available Ni in black soil and corn and the effects on them by the geochemical methods and SPSS software. The aim was to show the characteristic of Ni transformation and accumulation through soil-crop continuum and the influencing factors for food security. The results showed that total Ni in black soil of Jilin Province are above Jilin and national background level, the content of Ni is keeping the natural background in black soil in Jilin province. The influence of human activities in this district till now is comparatively less. The transformation degree of available Ni is relatively high. The degree of Ni accumulation in corn is low. The total Ni in soil have controlled effect on the available Ni, and the total Cu, Cr, Zn and the available Cr play a significant role in Ni transformation. The slight acid soil is better for Ni transformation and accumulation.

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Advanced Materials Research (Volumes 955-959)

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3740-3745

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June 2014

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© 2014 Trans Tech Publications Ltd. All Rights Reserved

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[1] Staglini W M, Doelman P, Salomons W, et al. Environment, Vol. 33(1991), pp.4-30.

Google Scholar

[2] Konstern C JM. Applied Geochemistry, Vol. 12(1993), pp.295-299.

Google Scholar

[3] Yang Dingqing, Fu Shaoqing. Sichuan Environment, Vol. 13(1994), pp.19-23(In Chinese).

Google Scholar

[4] Li Z, Shuman L M. The Science of the Total Environment, Vol. 191(1996), p.95.

Google Scholar

[5] Genoni P, Parco V, Santagostino A. Chemosphere, Vol. 41(2000), pp.729-733.

Google Scholar

[6] Luo Dan, Hu Xinxin, Zheng Haifeng, Wang Guo. Ecology and Environmental Sciences, Vol. 19(2010), pp.584-589(In Chinese).

Google Scholar

[7] Kapustka L A, Eskew D, Yocum J M. Environmental Toxicology and Chemistry, Vol. 25(2006), pp.865-874.

Google Scholar

[8] Rooney C, Zhao F J, Mcgrach S P. Environmental Pollution, Vol. 145(2007), pp.596-605.

Google Scholar

[9] Zheng Yuanming, Chen Tongbin, Chen Huang, et al. ACTA GEOGRAPHICA SINICA, Vol. 58(2003), pp.470-476(In Chinese).

Google Scholar

[10] Kang LIjuan, Xie Zhonglei. P. Journal of Agro-Environment Science, Vol. 27(2008), pp.2315-2318 (In Chinese).

Google Scholar

[11] Wagner G J. Advanced Agronomy, Vol. 51(1993), pp.173-212.

Google Scholar

[12] LI Jian, ZHENG Chun-jiang, et al., in: Environmental Background Values Data Sheet, China Environmental Press(1989) (In Chinese).

Google Scholar

[13] LIAO Qi-lin, JIN Yang, WU Xin-min, et al. Artificial Environmental Concentration Coefficients of Element in Soil in the Nanjing Area[J]. Geology in China, 2005, 32(1): 141~147(In Chinese).

Google Scholar

[14] Zhiping Huang, Bin Xu, Keqiang Zhang. Ecology and Environment, Vol. 16(2007), pp.1694-1699(In Chinese).

Google Scholar

[15] Mao Lingfeng, Peng Peihao, Chen Dewen. Chinese Journal of Ecology, Vol. 28(2009), pp.1117-1122(In Chinese).

Google Scholar

[16] Yang Liu, Yulong Zhang, Yuling Zhang et al. Journal of Agro-Environment Science, Vol. 31(2012), pp.1131-1134(In Chinese).

Google Scholar

[17] Shunquan Yuan, Ye Zhao, Diancheng Liu. Transactions of the CSAE, Vol. 24(2008), pp.20-23(In Chinese).

Google Scholar

[18] Jinfeng Liao. ACTA SCIENTIARUM NATURALIUM UNIVERSITATIS SUNYATSENI, Vol. 35(1996), pp.45-49(In Chinese).

Google Scholar

[19] Baoxian Tao, Jinchi Zhang, Yuanchun Yu. Environmental Chemistry, Vol. 30(2011), pp.447-453(In Chinese).

Google Scholar