| 光谱学与光谱分析 |
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| Distribution Characteristics of Soil Heavy Metals in Bamboo Forest of Phyllostachys edulis on Lead-Zinc Orefield |
| SU Wen-hui, FENG Huan-ying, FAN Shao-hui*, LI Xing-jun, XU Qing-biao |
| International Centre for Bamboo and Rattan, Key Laboratory of Bamboo and Rattan, Beijing 100102，China |
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Abstract The woodland and farmland soil nearby lead-zinc mine has been polluted seriously due to the mining. Bamboo forest of Phyllostachys edulis has high economic value and is distributed widely in China. The Phyllostachys edulis forest nearby lead-zinc mine was selected, and the distribution characteristics of main heavy metal Cu, Zn, Pb and Cd in soil were studied. The result showed that the concentration of Cu, Zn, Pb and Cd in bamboo rhizome zone reached 38.10~50.87, 92.24~137.75, 32.04~46.22 and 0.03~0.35 mg·kg-1 respectively, which was lower than that in non-rhizome zone soil significantly. This result indicated that the distribution and concentration of heavy metals in soil were influenced partly by bamboo developed rhizome-root system and human frequent tending management. About the influence of distance from pollution source and slope position, the heavy metals content in soil showed a decreasing trend as the distance increased, and for most elements, the content in soil of the middle slope position was high, and was a little lower in upper slope position.
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Received: 2012-10-29
Accepted: 2013-01-11
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Corresponding Authors:
FAN Shao-hui
E-mail: fansh@icbr.ac.cn
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[1] ZHENG Xiao-cha，XIA Bei-cheng，LIN Xiao-fang，et al(郑晓茶，夏北成，林小方，等). China Environmental Science(中国环境科学)，2010, 30(3): 369.
[2] WANG Li-jun，LU Xin-wei，LEI Kai，et al(王利军，卢新卫，雷 凯，等). Environmental Science(环境科学)，2011, 32(8)：2470.
[3] CAO Fu-liang，YU Wan-wen，ZHU Yu-lin(曹福亮，郁万文，朱宇林). Scientia Silvae Sinicae(林业科学)，2012，48(4)：8.
[4] Wang Ye，Zhang Xing，Jie Yucheng，et al. Agricultural Science & Technology，2012，13(2)：375.
[5] CHEN Ben，QIU Hai-yuan，GUO Yan-ni，et al(陈 奔，邱海源，郭彦妮，等). Journal of Xiamen University(厦门大学学报)，2012，51(2)：245.
[6] ZHANG Xiao-yun，LI Yun-cheng，SONG Zheng-rui，et al(张晓云，李蕴成，宋正蕊，等). Studies of Trace Elements and Health(微量元素与健康研究)，2010，27(3)：34.
[7] WANG Lan，LIU Fang，WANG Jian，et al(王 兰，刘 方，王 俭，等). Chinese Journal of Ecology(生态学报)，2010，29(6)：1121.
[8] Verner J F，Ramsey M H，Helios-Rybicka E，et al. Applied Geochemistry，1996，11(12)：11.
[9] Cappuyns V，Swennen R，Vandamme A. Journal of Geochemical Exploration，2006，88(1-3)：6.
[10] ZHANG Chang-shun，FAN Shao-hui，XIE Gao-di(张昌顺，范少辉，谢高地). Forest Research(林业科学研究)，2010，23(2)：259.
[11] WANG Bing，WEI Wen-jun，XING Zhao-kai，et al(王 兵，魏文俊，邢兆凯，等). Ecology and Environment(生态环境)，2008，17(14)：1680.
[12] CHEN Xian-gang，ZHANG Yi-ping，ZHANG Xiao-quan，et al(陈先刚，张一平，张小全，等). Acta Ecologica Sinica(生态学报)，2008，28(11)：5218.
[13] SUN Qin，WANG Xiao-rong，DING Shi-ming(孙 琴，王晓蓉，丁士明). Chinese Jounral of Ecology(生态学杂志)，2005，24(1)：30.
[14] Anderson T A，Kruger E L，Coat J R，et al. Chemosphere，1994，28：1551.
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