Geomorphology of coal seam fires

被引:210
|
作者
Kuenzer, Claudia [1 ]
Stracher, Glenn B. [2 ]
机构
[1] DLR, German Remote Sensing Data Ctr, DFD, German Aerosp Ctr, D-82234 Oberpfaffenhofen, Germany
[2] E Georgia Coll, Swainsboro, GA 30401 USA
关键词
Coal fire; Geomorphology; Surface fracturing; Surface subsidence; Bedrock alterations; Geohazards; THERMAL IR DATA; JHARIA COALFIELD; ENVIRONMENTAL IMPACTS; MINE; WUDA; AREA; TEMPERATURE; WORLD; BEDS;
D O I
10.1016/j.geomorph.2011.09.004
中图分类号
P9 [自然地理学];
学科分类号
0705 ; 070501 ;
摘要
Coal fires occur in underground natural coal seams, in exposed surface seams, and in coal storage or waste piles. The fires ignite through spontaneous combustion or natural or anthropogenic causes. They are reported from China, India, USA, South Africa, Australia, and Russia, as well as many other countries. Coal fires lead to loss of a valuable resource (coal), the emission of greenhouse-relevant and toxic gases, and vegetation deterioration. A dangerous aspect of the fires is the threat to local mines, industries, and settlements through the volume loss underground. Surface collapse in coal fire areas is common. Thus, coal fires are significantly affecting the evolution of the landscape. Based on more than a decade of experience with in situ mapping of coal fire areas worldwide, a general classification system for coal fires is presented. Furthermore, coal seam fire geomorphology is explained in detail. The major landforms associated with, and induced by, these fires are presented. The landforms include manifestations resulting from bedrock surface fracturing, such as fissures, cracks, funnels, vents, and sponges. Further manifestations resulting from surface bedrock subsidence include sinkholes, trenches, depressions, partial surface subsidence, large surface subsidence, and slides. Additional geomorphologic coal fire manifestations include exposed ash layers, pyrometamorphic rocks, and fumarolic minerals. The origin, evolution, and possible future development of these features are explained, and examples from in situ surveys, as well as from high-resolution satellite data analyses, are presented. The geomorphology of coal fires has not been presented in a systematic manner. Knowledge of coal fire geomorphology enables the detection of underground coal fires based on distinct surface manifestations. Furthermore, it allows judgments about the safety of coal fire-affected terrain. Additionally, geomorphologic features are indicators of the burning stage of fires. Finally, coal fire geomorphology helps to explain landscape features whose occurrence would otherwise not be understood. Although coal fire-induced thermal anomalies and gas release are also indications of coal fire activity, as addressed by many investigators, no assessment is complete without sound geomorphologic mapping of the fire-induced geomorphologic features. (C) 2011 Elsevier B.V. All rights reserved.
引用
收藏
页码:209 / 222
页数:14
相关论文
共 50 条
  • [31] Electrical resistivity of coal-bearing rocks under high temperature and the detection of coal fires using electrical resistance tomography
    Shao, Zhenlu
    Wang, Deming
    Wang, Yanming
    Zhong, Xiaoxing
    Tang, Xiaofei
    Xi, Dongdong
    GEOPHYSICAL JOURNAL INTERNATIONAL, 2016, 204 (02) : 1316 - 1331
  • [32] Evaluation of a Compact Coaxial Underground Coal Gasification System Inside an Artificial Coal Seam
    Su, Fa-qiang
    Hamanaka, Akihiro
    Itakura, Ken-ichi
    Deguchi, Gota
    Zhang, Wenyan
    Nan, Hua
    ENERGIES, 2018, 11 (04)
  • [33] A Novel Method to Monitor Coal Fires Based on Multi-Spectral Landsat Images
    Xia Qing
    Hu Zhen-qi
    SPECTROSCOPY AND SPECTRAL ANALYSIS, 2016, 36 (08) : 2712 - 2720
  • [34] Research and numerical simulation of the chemical ignition of underground coal gasification in a deep coal seam
    Liang, Xin-Xing
    Sun, Chun-Bao
    Liang, Jie
    Shen Fang
    Beijing Keji Daxue Xuebao/Journal of University of Science and Technology Beijing, 2013, 35 (01): : 8 - 15
  • [35] Gas emissions, tars, and secondary minerals at the Ruth Mullins and Tiptop coal mine fires
    O'Keefe, Jennifer M. K.
    Neace, Erika R.
    Hammond, Max L., III
    Hower, James C.
    Engle, Mark A.
    East, Joseph
    Geboy, Nicholas J.
    Olea, Ricardo A.
    Henke, Kevin R.
    Copley, Gregory C.
    Lemley, Edward
    Nally, Rachel S. Hatch
    Hansen, Antonia E.
    Richardson, Allison R.
    Satterwhite, Anne B.
    Stracher, Glenn B.
    Radke, Larry F.
    Smeltzer, Charles
    Romanek, Christopher
    Blake, Donald R.
    Schroeder, Paul A.
    Emsbo-Mattingly, Stephen D.
    Stout, Scott A.
    INTERNATIONAL JOURNAL OF COAL GEOLOGY, 2018, 195 : 304 - 316
  • [36] Evolution characteristics of overburden structure and stress in strong mining of the deep coal seam: a case study
    Zou, Junpeng
    Wang, Man
    Bai, Lu
    Yan, Chongwei
    FRONTIERS IN EARTH SCIENCE, 2023, 11
  • [37] Investigation of thermal behavior and hazards quantification in spontaneous combustion fires of coal and coal gangue
    Zhang, Yuanbo
    Zhang, Yutao
    Shi, Xueqiang
    Liu, Shangming
    Shu, Pan
    Xia, Shangwen
    SCIENCE OF THE TOTAL ENVIRONMENT, 2022, 843
  • [38] Detection of coal mine fires in the Jharia coal field using NOAA/AVHRR data
    Agarwal, Rashi
    Singh, D.
    Chauhan, D. S.
    Singh, K. P.
    JOURNAL OF GEOPHYSICS AND ENGINEERING, 2006, 3 (03) : 212 - 218
  • [39] Numerical modelling of rockburst mechanism in a steeply dipping coal seam
    He, Shengquan
    Song, Dazhao
    He, Xueqiu
    Li, Zhenlei
    Chen, Tuo
    Shen, Feng
    Chen, Jianqiang
    Mitri, Hani
    BULLETIN OF ENGINEERING GEOLOGY AND THE ENVIRONMENT, 2023, 82 (07)
  • [40] Seismoelectric Response to a Point Source During Coal Seam Excavation
    Gao, Yongxin
    Li, Shuaijia
    Wang, Dongdong
    Zhou, Guanqun
    Hu, Xiongwu
    He, Xiao
    IEEE TRANSACTIONS ON GEOSCIENCE AND REMOTE SENSING, 2024, 62 : 1 - 9