Effect of potassium carbonate on coal ash sintering and mineral transformation in H2O-H2-CO-CO2 atmosphere
- Corresponding author: ZHANG Rong, zrbd@sxicc.ac.cn
Citation:
LI Peng-fei, QU Xuan, ZHANG Rong, BI Ji-cheng. Effect of potassium carbonate on coal ash sintering and mineral transformation in H2O-H2-CO-CO2 atmosphere[J]. Journal of Fuel Chemistry and Technology,
;2020, 48(9): 1047-1054.
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1-constant pressure valve; 2-mass flowmeter; 3-high-pressure water pump; 4-preheater-heater; 5-cylinder ash column; 6-gas distributor; 7-electric furnace; 8-differential manometer; 9-thermocouple; 10-gas liquid separator; 11-back pressure regulator; 12-volumetric flow meter
(a): EEDS raw coal ash; (b): EEDS-K coal ash a: EEDS raw coal ash; b: EEDS-N2-3.5 MPa; c: EEDS-mixture-3.5 MPa; d: EEDS-K ash; e: EEDS-K-N2-3.5 MPa; f: EEDS-K-mixture-0.1 MPa; g: EEDS-K-mixture-3.5 MPa; Q: quartz-SiO2; A: anhydrite-CaSO4; C: calcite-CaCO3; H: hematite-Fe2O3; Mu: muscovite-K0.77Al1.93(Al0.5Si3.5)O10(OH)2; An: anathite-CaAl2SiO8; Ma:magnetite-Fe3O4; Ar: arcanite-K2SO4; CaO: calcium oxide-CaO; B: butschliite-K2Ca(CO3)2; PC: potassium carbonate-K2CO3; PH: potassium carbonate hydrate-K2CO3 ·1.5H2O; PA: potassium aluminate silicate-K0.85Al0.85Si0.15O2; PS: potassium silicate-K2Si4O9; KA: kaliophilite-KAlSiO4
(a): WS raw coal ash; (b): WS-K coal ash a: WS raw coal ash; b: WS-N2-3.5 MPa; c: WS-mixture-3.5 MPa; d: WS-K ash; e: WS-K-N2-3.5 MPa; f: WS-K-mixture-0.1 MPa; g: WS-K-mixture-3.5 MPa; Q: quartz-SiO2; A: anhydrite-CaSO4; C: calcite-CaCO3; H: hematite-Fe2O3; I: illite-K(Al4Si2O9(OH)3); An: anathite-CaAl2SiO8; Mu: muscovite-K0.77Al1.93(Al0.5Si3.5)O10(OH)2; Ma: magnetite-Fe3O4; Ar: arcanite-K2SO4; CaO: calcium oxide-CaO; B: butschliite-K2Ca(CO3)2; PH: potassium carbonate hydrate-K2CO3 ·1.5H2O; PC: potassium carbonate-K2CO3; PA: potassium aluminate silicate-K0.85Al0.85Si0.15O2; PS: potassium silicate-K2Si4O9; KA: kaliophilite-KAlSiO4