Study on the Height of Transmissive Fractured Zone Based on the ANFIS

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Adaptive Neuro-Fuzzy Inference System has the merits of high convergence speed, potentially better generalization capability, high prediction accuracy and definiteness of the training results, and it has been applied to inverse design of slopes and surface displacement due to coal extraction. By training and checkout the collected 19 examples of mining under water body, the optimum ANFIS modeling was established. ANFIS-based approach for the forecast of the height of transmissive fractured belt are applied to the extraction the No.Ⅲ ore body at Kangjiawan Zinc-Lead Mine successfully, some important conclusions are of great significance to the factual issues. All the experiences may be of greatly beneficial reference for the similar projects since then.

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2760-2765

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December 2012

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© 2013 Trans Tech Publications Ltd. All Rights Reserved

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[1] He Guoqing, Yang Lun, Ling Gengdi, Jia Fengcai, Hong Du. Mining Subsidence of mines [M]. China University of Mining & Technology Publishing Press, 1994, 6: 1-37(in Chinese)

Google Scholar

[2] Guo Jiang, Peng Jicheng, Sci-tech Current status and development trend of underwater exploitation of metalliferous deposit in China [J]. Non-ferrous Mining and Metallurgy, 1997, 1:5-6. (in Chinese)

Google Scholar

[3] Ding Dexin, Zhang Zhijun. Study on ANFIS-based approach for inverse design of with circular failure surface sliding slopes[J]. Chinese Jounal of Geotechnical Engineering, 2004, 26(2):202-206(in Chinese)

Google Scholar

[4] Cai Zhenyu, Yang Bensheng, Liu Xinhe. Similar simulation study of mining ore-deposit Underwater-body[J]. China mining magazine. 2003, 12(3):62-63(in Chinese)

Google Scholar

[5] Zou Hai, Gui Herong, Wang Guiliang, Qingfu Zhou. Forcast about the height of water fractured zone under zone under sub-level caving method[J]. Coal Geology & Exploration, 1998, 12:43-46(in Chinese)

Google Scholar

[6] Zou Hai, Wang Guiliang, Gui Herong, Chen Zhaoyan. The damage-back analysis study of rock mechanics parameter. Journal of Changchun University of Science and Technology. 1999, 29 (2):167-170(in Chinese)

Google Scholar

[7] Wang Xinkun, Chen Fuyong, Rui Shaofa. Experiment about simple caving the roof under thick loose water body[J]. Mining safety&environmental protection. 2003, 30(2):13-14(in Chinese)

Google Scholar

[8] Song Xiaomei, Tian Caixia, Yin Zhengzhu.etc. The modification of physical property parameter of wall rock in lulin mine's 810 mining area[J]. Mining safety&environmental protection. 2003, 30(2):3-5(in Chinese)

Google Scholar

[9] Tu Min, Gui Herong. the high simulation about crack happened in caving the roof of thick loose layers and extreme thin overburden. Ground Pressure and Strata Control. 2002, 2:92-93(in Chinese)

Google Scholar

[10] Peng Yunqi. Mining Technial Study of the deposits beneath the large water body of kangjiawan mine district[J]. Mining Technology 2004, 4(2):12-13(in Chinese)

Google Scholar

[11] Hou Enke, Wu Lixin, Liu Hongjun. Comparison analysis of overburden rock mass damage process in different precision of geologic model[J]. Mine Surveying, 2003,(3):25-27(in Chinese)

Google Scholar

[12] Wang Jingming, Ma Maosheng, Wang Yong. The height determination of transmissive fractured induced by high-face mining under desert[J]. Coal Geology & Exploration. 1999, 27(1):45-47(in Chinese)

Google Scholar

[13] Huang Qingxiang, Qi Wantao, Wang Chunlin. Analysis of mechanism and form of main roof breaking during first weighting in longwall face[J]. Journal of Xi'an Mining Insitute. 1999, 19(3):193-197(in Chinese)

Google Scholar

[14] Wu Lansun. Study of Improving Recovery Mining Upper Limit under water body: Master's Degree Thesis. Xuzhou: China University of Mining & Technology. 2001. 5(in Chinese)

Google Scholar

[15] Liu Hongyuan, Liu Jianxin, Tang Chunan. Numerical simulation of failure process of overburden rock strata caused by mining excavation[J], Chinese Journal of Geotechnical Engineering. 2001, 23(2):201-204(in Chinese)

Google Scholar

[16] Tu Min, Yu Zhonglin. Destruction analysis of mine overburden rock moving the roof under thick loose water body[J]. Ground Pressure and Strata Control, 2004, 2:1-3(in Chinese)

Google Scholar

[17] Jing Wenyu, Zhang Genshen. Study on "three-under" mining techniques in douth area of the tin ore Mine[J]. Hunan Non-ferrous Metals. 2003, 19(6):1-4(in Chinese)

Google Scholar

[18] Sun Lingzhen, Wang Xucheng, Zhang Wenquan, Liu Weitao. Study on combined mining and exploration for the thin coal seams very close under gob water[J]. The Chinese Journal of Geological Hazard and Control.2000, 11(2):55-58(in Chinese)

Google Scholar

[19] Wu Shiliang. Evolvement Regularity of Overburden Rock Failure-Movement that has Obvious Influence on the Pressure in the Strata around a Stope[D]. Tai'an: Shandong University of Science and Technology. 2002, 6(in Chinese)

Google Scholar

[20] Du Furong. The Research of the Damage of Overburden Rock Mass of Shallow Coal Seam and Surface Movement Rules[M]. LiaoNing Technical University. 2002, 10(in Chinese)

Google Scholar

[21] Zhang Weifeng. Study on mining feasibility beneath "the 4th aquifer" water body set safety pillar prevent sand[J]. Coal Geology of China. 2002, 14(4):50-51(in Chinese)

Google Scholar

[22] Yin Hefeng, Qiao Fuxiang, Tao Houli, Zhang Xijiu. The research of safety mining of deeply inclined in three-soft coal seam[J]. coal science and technology, 1995, 23(6):31-35(in Chinese)

Google Scholar

[23] Tang Lizhong, Peng Xucheng, Zhong Shiyou, Xu Jilong. A study on ground variations and their control during the mining under waters at Kangjiawan mine[J]. Mining and Metallurgical Engineering. 1996, 16(2):3-6(in Chinese)

Google Scholar

[24] Yin Xincai, Chen Changmin. The application of open and delayed cut-and cement-ed filled stoping of the ore deposit beneath the large water body[J]. Mining Technology. 2001, 1(3):11-12(in Chinese)

Google Scholar

[25] Xu Guoyuan, Peng Xucheng. A numerical simulation investigation for the development of water-conducting fissure in overlying rock Resulting from filled stopes method[J]. J.Cent.-South Inst. Min. Metall. 1994, 25(6):681-685(in Chinese)

Google Scholar