Synergetic effect on the combustion of lignite blended with humus: Thermochemical characterization and kinetics

[Display omitted] •Co-combustion behavior of humic matter and lignite was explored.•A novel synergy index was developed to explore the degree of synergetic effect.•The catalytic effect and non-catalytic effect were distinguished by synergy index.•The best kinetic models for combustion were determine...

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Veröffentlicht in:Applied thermal engineering 2019-04, Vol.152, p.137-146
Hauptverfasser: Qu, Xiaoyang, Zhou, Guoli, Cao, Yijun, Li, Peng, He, Yuyuan, Zhang, Jie
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container_end_page 146
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container_title Applied thermal engineering
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creator Qu, Xiaoyang
Zhou, Guoli
Cao, Yijun
Li, Peng
He, Yuyuan
Zhang, Jie
description [Display omitted] •Co-combustion behavior of humic matter and lignite was explored.•A novel synergy index was developed to explore the degree of synergetic effect.•The catalytic effect and non-catalytic effect were distinguished by synergy index.•The best kinetic models for combustion were determined by Master-plots method. The co-combustion of lignite with humus was investigated as an effective way to mitigate carbon emission. The thermal characteristics of the co-combustion were successfully evaluated, which was the prerequisite for predicting synergy and blending optimization of this process. A novel synergy index (SI) was proposed to quantify the synergetic effect and differentiate the effect of minerals and organics in humus during co-combustion. The non-catalytic synergy of organics (SI = 1.76) was stronger than the catalytic synergy of minerals (SI = 1.55) for the 20 wt% humus blend. However, catalytic synergy was more dominant at high humus blending ratios. The kinetic parameters were estimated through two model-free methods. The activation energy of the blend by Kissinger-Akahira-Sunose and Flynn-Wall-Ozawa methods was 104.99 and 110.71 kJ/mol, respectively. The more precise kinetic model of the blend was determined by master-plots method. This study also demonstrated that humus could be used as a potential fuel in co-combustion system.
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The co-combustion of lignite with humus was investigated as an effective way to mitigate carbon emission. The thermal characteristics of the co-combustion were successfully evaluated, which was the prerequisite for predicting synergy and blending optimization of this process. A novel synergy index (SI) was proposed to quantify the synergetic effect and differentiate the effect of minerals and organics in humus during co-combustion. The non-catalytic synergy of organics (SI = 1.76) was stronger than the catalytic synergy of minerals (SI = 1.55) for the 20 wt% humus blend. However, catalytic synergy was more dominant at high humus blending ratios. The kinetic parameters were estimated through two model-free methods. The activation energy of the blend by Kissinger-Akahira-Sunose and Flynn-Wall-Ozawa methods was 104.99 and 110.71 kJ/mol, respectively. The more precise kinetic model of the blend was determined by master-plots method. 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The co-combustion of lignite with humus was investigated as an effective way to mitigate carbon emission. The thermal characteristics of the co-combustion were successfully evaluated, which was the prerequisite for predicting synergy and blending optimization of this process. A novel synergy index (SI) was proposed to quantify the synergetic effect and differentiate the effect of minerals and organics in humus during co-combustion. The non-catalytic synergy of organics (SI = 1.76) was stronger than the catalytic synergy of minerals (SI = 1.55) for the 20 wt% humus blend. However, catalytic synergy was more dominant at high humus blending ratios. The kinetic parameters were estimated through two model-free methods. The activation energy of the blend by Kissinger-Akahira-Sunose and Flynn-Wall-Ozawa methods was 104.99 and 110.71 kJ/mol, respectively. The more precise kinetic model of the blend was determined by master-plots method. 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subjects Blending
Carbon
Catalysis
Co-combustion
Combustion
Emission analysis
Emissions
Heat conductivity
Heat transfer
Humus
Kinetic model
Lignite
Minerals
Optimization
Parameter estimation
Reaction kinetics
Synergy
Thermodynamics
title Synergetic effect on the combustion of lignite blended with humus: Thermochemical characterization and kinetics
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