1887
Volume 44, Issue 1
  • ISSN: 0812-3985
  • E-ISSN: 1834-7533

Abstract

[

EM34, VLF and DC-resistivity methods have been effectively used to investigate the environmental impact of a coal waste pile at the Alborz Sharghi coal washing plant, north-east Iran. Two-dimensional resistivity sections and quasi-three-dimensional models obtained by the inversion of EM34 conductivity data together with the results of VLF and DC-resistivity methods have identified conductive leachate plumes downstream of the waste pile and decreasing resistivity at deeper levels of the earth due to the migration of contaminated plumes.

,

Coal washing factories may create serious environmental problems due to pyrite oxidation and acid mine drainage generation from coal waste piles on nearby land. Infiltration of pyrite oxidation products through the porous materials of the coal waste pile by rainwater cause changes in the conductivity of underground materials and groundwater downstream of the pile. Electromagnetic and electrical methods are effective for investigation and monitoring of the contaminated plumes caused by coal waste piles and tailings impoundments. In order to investigate the environmental impact from a coal waste pile at the Alborz Sharghi coal washing plant, an EM34 ground conductivity meter was used on seven parallel lines in an E–W direction, downstream of the waste pile. Two-dimensional resistivity models obtained by the inversion of EM34 conductivity data identified conductive leachate plumes. In addition, quasi-3D inversion of EM34 data has confirmed the decreasing resistivity at depth due to the contaminated plumes. Comparison between EM34, VLF and DC-resistivity datasets, which were acquired for similar survey lines, agree well in identifying changes in the resistivity trend. The EM34 and DC-resistivity sections have greater similarity and better smoothness rather than those of the VLF model. Two-dimensional inversion models of these methods have shown some contaminated plumes with low resistivity.

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/content/journals/10.1071/EG12006
2013-03-01
2026-01-13
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