Submit an Article
Become a reviewer
Vol 207
Pages:
222-225
Download volume:
RUS
Article

Physical processes methane formation as a result of coal disintegration

Authors:
M. G. Menzhulin1
A. V. Montikov2
S. V. Vasilev3
About authors
  • 1 — Ph.D., Dr.Sci. professor National Mineral Resources University (Mining University)
  • 2 — Ph.D. associate professor National Mineral Resources University (Mining University)
  • 3 — Ph.D. leading engineer National Mineral Resources University (Mining University)
Date submitted:
2013-07-16
Date accepted:
2013-09-02
Date published:
2014-03-17

Abstract

Considered are the thermodynamic conditions on the surfaces generated in coal cracks in the process of its destruction. It is shown that the temperature at the surface of cracks on the stage of destruction is comparable with the melting temperature of coal and ignition of methane. Ratios for the assessment of the development phase transitions on the surfaces of coal cracks. It is shown that the rate of methane in proportion to the total surface of the pieces of coal at de-struction. To reduce the amount of methane generation it is recommended to reduce the load on the breakage face.

Область исследования:
(Archived) Geomechanics
Keywords:
methane coal disintegration cracks phase transition
Funding:

None

Go to volume 207

Similar articles

Quarry capacity of ore relation from bench height
2014 G. A. Kholodnyakov, M. D. Abdullaev
Analysis of accident and stages of effective safety management system on the example of «Vorkutaugol»
2014 E. G. Buldakova, E. B. Gridina
Approach to the conduct of monitoring studies in the area of the mineral and raw complex objects using remote sensing
2014 T. A. Petrova
Ways of improving waste disposal in the workings of salt mines
2014 O. V. Kovalev, S. P. Mozer
Assessment of the longwall face length influence on gas emission at longwall panels of the OJSC «Vorkutaugol» coal mines
2014 O. I. Kazanin, A. M. Sufiyarov
Determination of ore reclaiming efficiency on accumulation and bedding stockyards
2014 V. A. Shevelev