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Mining Technology and Mine Management

Stability Prediction of Goaf Based on Stacking Model

  • Mufan WANG , 1 ,
  • Zhouquan LUO 1 ,
  • Qi YU , 2
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  • 1. School of Resources and Safety Engineering,Central South University,Changsha 410083,Hunan,China
  • 2. Hunan Vocational Institute of Technology,Xiangtan 411100,Hunan,China

Received date: 2020-02-29

  Revised date: 2020-06-11

  Online published: 2021-01-29

Highlights

In the process of mining,the mining technology mainly based on the open field method will leave a large number of goaves after mining,which has great safety risks.Therefore,the prediction of the stability of the goaf is particularly important.In recent years,with the advent of the era of big data,machine learning and deep learning technology has been introduced into the mining industry.More and more scholars begin to use the prediction method of machine learning to study the stability of goaf.It is found that every single machine term model has its scope of use and scene,when facing a new goaf problem,we can not immediately give the most effective model to adapt to it.At this time,the stacking method derived from integrated learning is born.This article is mainly divided into three parts.The first part mainly introduces the Stacking method,explains the main steps of the method and the choice of the learner.Stacking is generally a two-layer structure.The first layer is composed of various elementary learners.Input the original data set to train them.The second layer uses the output of these primary learners as a new data set and new features into the secondary learner (meta-learner) for training,to complete the stack fusion of the model.The Stacking model requires that the correlation between the primary learners should be as small as possible,and the performance difference between the primary learners should not be too large.The second-level learner should choose a simpler learner.The second part is the construction of Stacking model.This paper selected eleven factors affecting the stability of mined-out area,they are the rock mass structure (X 1),geological structure(X 2),groundwater (X 3),goaf engineering layout (X 4),mining perturbation(X 5),adjacent cavity (X 6),the volume of the goaf (X 7),the exposed area of goaf roof (X 8),buried depth (X 9),goaf span mined-out area ratio (X 10),rock compressive strength(X 11).By using the eleven dimensional data and the classification of goaf stability as training data,we put them into the stacking model with random frost,AdaBoost,extratrees and lightgbm as primary learners and logistic regression as secondary learners for training.Another part of the training data was used as test data to compare the performance of stacking model and single machine learning model.The experimental results show that the F1 and AUC of stacking model are 0.967 and 0.97 respectively.Far higher than all other single machine learning models.The stacking model is better than other single machine learning models and show stronger generalization ability.Therefore,as the third part,it is concluded that the stacking model can predict the stability of goaf better than the single machine learning model.

Cite this article

Mufan WANG , Zhouquan LUO , Qi YU . Stability Prediction of Goaf Based on Stacking Model[J]. Gold Science and Technology, 2020 , 28(6) : 894 -901 . DOI: 10.11872/j.issn.1005-2518.2020.06.049

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http://www.goldsci.ac.cn/article/2020/1005-2518/1005-2518-2020-28-6-894.shtml

1
冯远建,李子龙.矿山采空区稳定性分析及安全治理方法研究[J].煤炭与化工201437(6):28-30.

Feng Yuanjian Li Zilong.Mine goaf stability analysis and security management method research[J].Coal and Che-mical Industry201437(6):28-30.

2
晁军,雷醒民,樊育豪.三维有限元数值模拟在采空区稳定性评价中的应用[J].工程建设与设计2018(23):15-18.

Chao Jun Lei Xingmin Fan Yuhao.Application of three-dimensional finite element numerical simulation in stability evaluation of mined-out area[J].Construction and Design for Engineering2018(23):15-18.

3
杨宁,尹贤刚,钟勇,等.基于3DMine-FLAC3D的复杂空区稳定性分析[J].化工矿物与加工2019(4):22-24,28.

Yang Ning Yin Xiangang Zhong Yong,et al.Stability analysis of complex goaf based on 3DMine-FLAC3D[J].Industrial Minerals and Processing2019(4):22-24,28.

4
邓岁伟,冯锐,赵铭久.基于ANSYS的采空区稳定性数值模拟分析[J].采矿技术201818(1):34-37.

Deng Suiwei Feng Rui Zhao Mingjiu.Numerical simulation analysis of goaf stability based on ANSYS[J].Mining Technology201818(1):34-37.

5
季惠龙,侯克鹏,张成良,等.大型采空区顶板冒落危害预测[J].采矿技术201010(2):50-52,76.

Ji Huilong Hou Kepeng Zhang Chengliang,et al.Hazard prediction of roof caving in large goaf [J].Mining Technology201010(2):50-52,76.

6
曾令义,潘冬.崩落法转充填法隔离层安全厚度的确定[J].矿冶工程201535(4):17-20.

Zeng Lingyi Pan Dong.Determination of safety thickness of isolation layer during transition from caving to cut-and-fill stoping[J].Mining and Metallurgical Engineering201535(4):17-20.

7
张慧生,顾伟.典型曲线法在山东龙口软岩煤矿区开采沉陷预测中的应用[J].地质找矿论丛201429(1):84-90.

Zhang Huisheng Gu Wei.Establishment and application of typical curve method for Longkou soft rock coal-mining area in Shandong Province[J].Contributions to Geology and Mineral Resources Research201429(1):84-90.

8
许章平,栾元重,相涛,等.基于概率积分法和Kalman滤波模型的矿区变形预测[J].煤炭技术201837(12):111-114.

Xu Zhangping Luan Yuanzhong Xiang Tao.Mining deformation prediction based on probability integral method and Kalman filter model[J].Coal Technology201837(12):111-114.

9
孟东芳,唐皓,童锋.基于突变级数法的岩体质量评价[J].中国煤炭地质201830(10):64-69.

Meng Dongfang Tang Hao Tong Feng.Rock mass quality assessment based on catastrophe progression method[J].Coal Geology of China201830(10):64-69.

10
王海峰,李夕兵,董陇军,等.基于支持向量机的采空区稳定性分级[J].中国安全生产科学技术201410(10):154-159.

Wang Haifeng Li Xibing Dong Longjun,et al.Classification of goaf stability based on support vector machine[J].Journal of Safety Science and Technology201410(10):154-159.

11
黄新典,褚夫蛟.基于逻辑回归-聚类算法的采空区危险等级评价模型[J].金属矿山201948(8):179-184.

Huang Xindian Chu Fujiao.Risk grade evaluation model of goaf based on logical regression and clustering algorithm[J].Metal Mine201948(8):179-184.

12
李孜军,林武清,陈阳.基于AGA-BP神经网络的采空区危险性评价[J].中国安全生产科学技术201511(7):135- 141.

Li Zijun Lin Wuqing Chen Yang.Evaluation on risk of goaf based on AGA-BP neural network[J].Journal of Safety Science and Technology201511(7):135- 141.

13
Qin Y G Luo Z Q Ma S W,et al.Evaluation of goaf stability based on transfer learning theory of artificial intelligence[J].IEEE Access20197:96912-96925.

14
李岩,赵建文.基于PCA-SVM 的采空区危险性评价[J].河北冶金2014(11):72-77.

Li Yan Zhao Jianwen.Dangerous assessment based on PCA-SVM for stoped-out area[J].Hebei Metallurgy2014(11):72-77.

15
Wolpert D H.Stacked generalization[J].Neural Networks19925(2):241-259.

16
Breiman L.Random forests[J].Machine Learning200145(1):5-32.

17
Freund Y Schapire R E.A decision-theoretic generalization of on-line learning and an application to boosting[C]// Proceeding of the Second European Conference on Computational Learning Theory.Berlin:Springer-Verlag,1995:23-27.

18
Geurts P Ernst D Wehenkel L.Extremely randomized trees[J].Machine Learning200663(1):3-42.

19
Ke G L Meng Q Finley T,et al.LightGBM:A highly efficient gradient boosting decision tree[C]//Proceedings of the 31st International Conference on Neural Information Processing Systems(NIPS' 17).New York:Curran Associates Inc.,Red Hook,2017:3149-3157.

20
陈怀利.基于盲数理论的采空区危险性评价模型[J].采矿技术201919(3):43-46.

Chen Huaili.Risk evaluation model of goaf based on blind number theory[J].Mining Technology201919(3):43-46.

21
赵超,马俊超,万黎明,等.基于层次可拓分析法的采空区塌陷危险性评价研究[J].安全与环境工程201623(6):35-40.

Zhao Chao Ma Junchao Wan Liming,et al.Risk evaluation of underground goaf collapse based on the hierarchy extension analysis[J].Safety and Environmental Engineering201623(6):35-40.

22
汪朝,郭进平,王李管.采空区危险性的支持向量机识别[J].重庆大学学报(自然科学版)201538(4):85-90.

Wang Zhao Guo Jinping Wang Liguan.Recognition of goaf risk based on support vector machines method[J].Journal of Chongqing University(Natural Science Edition)201538(4):85-90.

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