發(fā)表文獻(xiàn) :
Lu Y , Wang L , Ge Z , et al. Fracture and pore structure dynamic evolution of coals during hydraulic fracturing[J]. Fuel,2020, 259:116272.
Gan Q , et al. Effects of heating temperature on pore structure evolution of briquette coals[J]. Fuel, 2021, 296(2):120651.
Chaohui L , Zhengfu N , Mingqiang C , et al. Experimental study of boundary condition effects on spontaneous imbibitionin tight sandstones[J]. Fuel, 2019, 235:374-383.
Bing W A , et al. Adsorptive behaviors of supercritical CO2 in tight porous media and triggered chemical reactions with rock minerals during CO2-EOR and -sequestration[J]. Chemical Engineering Journal, 381(C):122577-122577.
Feng Wang; Yanbin Yao; Zhiang Wen,et,al. Effect of water occurrences on methane adsorption capacity of coal: A comparisonbetween bituminous coal and anthracite coal. Fuel, 2019, 266-285
Yunkai Ji, Jian Hou, Guodong Cui et al. Experimental study on methane hydrate formation in a partially saturatedsandstone using low-field NMR technique. Fuel, 2019, 251,82-90.
Zhang X , Wei B , You J , et al. Characterizing Pore-level Oil Mobilization Processes in Unconventional Reservoirs assisted by State-of-the-Art Nuclear Magnetic Resonance Technique[J]. Energy, 2021(24):121549.
Jie Lai, Kun Wang, Hangyu Zhou，et,al. Variation of Limestone Pore Structure Under Acidizing and Wormhole PropagationVisualization Using NMR[J]. Society of Petroleum Engineers.2020.
Caili Dai, Rui Cheng, Xin Sun, et al. Oil migration in nanometer to micrometer sized pores of tight oil sandstone duringdynamic surfactant imbibition with online NMR. Fuel 2019, 245: 544-553.
大孔徑核磁共振成像分析MacroMR系列
掃描二維碼
掃描二維碼
電話客服
微信客服
公眾號
