Enhancement of Coal Permeability Using Aqueous NaCl with Microwave Irradiation

Water in coal pores can generate strong steam explosions when treated with microwave irradiation. In order to improve the sensitivity of coal reservoirs to microwaves, we used varying concentrations of NaCl on the pore solution, which further increased the effect of microwaves on permeability enhanc...

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Published in:Geofluids 2022-01, Vol.2022, p.1-14
Main Authors: Guan, Weiming, Qi, Qi, Nan, Senlin, Wang, Haichao, Li, Xin, Wen, Yingyuan, Yao, Junhui, Ge, Yanyan
Format: Article
Language:English
Subjects:
Clean technology
Coal
Coal mining
Coalbed methane
Dielectric properties
Dielectrics
Electric fields
Electrical conductivity
Electrical properties
Energy
Explosions
Growth rate
Ion concentration
Irradiation
Maximum temperatures
Membrane permeability
Microwave radiation
Microwaves
Moisture content
Permeability
Rocks
Sediment samples
Sodium chloride
Steam explosions
Surface temperature
Temperature rise
Thermal energy
Thermal imaging
Thermal power
Water content
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container_title Geofluids
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description Water in coal pores can generate strong steam explosions when treated with microwave irradiation. In order to improve the sensitivity of coal reservoirs to microwaves, we used varying concentrations of NaCl on the pore solution, which further increased the effect of microwaves on permeability enhancement. In our experiments, we selected 3 ratios of water content and 5 different concentrations of NaCl. The changes of coal water content and permeability before and after irradiation were compared. In addition, changes in coal surface temperature and internal thermal power were analyzed through thermal imaging and random sphere numerical modeling. Results showed that the increase of the proportion of solution mass and the ion concentration in the solution improved the overall dielectric properties of coal rock samples. After microwave irradiation, the average reduction rate of water content in coal rock samples increased with the increase of ion concentration in the solution. Both the average surface temperature of the coal rock samples and the average electromagnetic heating power gradually increased; this increases the temperature rise rate and maximum temperature of coal rock samples under the same irradiation time, which is conducive to better rapid accumulation of steam pressure, thereby improving the pore structure more effectively. Finally, the maximum growth rate of permeability reached 466.18%. This work provides a novel train of thought to enhance coal permeability by using microwave irradiation.
doi_str_mv 10.1155/2022/2218525
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In order to improve the sensitivity of coal reservoirs to microwaves, we used varying concentrations of NaCl on the pore solution, which further increased the effect of microwaves on permeability enhancement. In our experiments, we selected 3 ratios of water content and 5 different concentrations of NaCl. The changes of coal water content and permeability before and after irradiation were compared. In addition, changes in coal surface temperature and internal thermal power were analyzed through thermal imaging and random sphere numerical modeling. Results showed that the increase of the proportion of solution mass and the ion concentration in the solution improved the overall dielectric properties of coal rock samples. After microwave irradiation, the average reduction rate of water content in coal rock samples increased with the increase of ion concentration in the solution. Both the average surface temperature of the coal rock samples and the average electromagnetic heating power gradually increased; this increases the temperature rise rate and maximum temperature of coal rock samples under the same irradiation time, which is conducive to better rapid accumulation of steam pressure, thereby improving the pore structure more effectively. Finally, the maximum growth rate of permeability reached 466.18%. 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source Wiley Online Library Open Access
subjects Clean technology
Coal
Coal mining
Coalbed methane
Dielectric properties
Dielectrics
Electric fields
Electrical conductivity
Electrical properties
Energy
Explosions
Growth rate
Ion concentration
Irradiation
Maximum temperatures
Membrane permeability
Microwave radiation
Microwaves
Moisture content
Permeability
Rocks
Sediment samples
Sodium chloride
Steam explosions
Surface temperature
Temperature rise
Thermal energy
Thermal imaging
Thermal power
Water content
title Enhancement of Coal Permeability Using Aqueous NaCl with Microwave Irradiation
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