Inertinite Reflectance in Relation to Combustion Temperature

Inertinite, a product of wildfire, holds important information on global temperature change. The relationship between its reflectance and temperature has been widely used to identify wildfire events in paleo-sedimentary environments, but the currently used equations relating inertinite reflectance and combustion temperature are subject to large errors. Therefore, to clarify the relationship between inertinite reflectance and combustion temperature further, we systematically analyzed changes in inertinite reflectance under different combustion durations based on the literature’s data. Results confirmed that inertinite reflectance is related to combustion duration. Disregarding combustion duration, the combustion equation is T=267.52+110.19×RoR2=0.91, where T is the combustion temperature, Ro% is the measured inertinite reflectance, and R2 is the correlation coefficient. Under a combustion duration of 1 h, the equation is T=273.57+113.89×RoR2=0.91, and under a combustion duration longer than 5 h (including 5 h), the equation is T=232.91+110.6×RoR2=0.94. These three equations not only account for the temporal factor, but are also more precise than the commonly used formula. This study provides a scientific basis for research on paleo-wildfire.

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Publication Details

Journal
Processes
Published
2024-11-06
DOI
https://doi.org/10.3390/pr12112452
Citations
3
Primary Topic
Coal and Its By-products
Type
article
Field-Weighted Citation Impact
1.04
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article

Inertinite Reflectance in Relation to Combustion Temperature

Xiaoyong Fu, Di Gao, Zhenzhi Wang, Chi Cui et al.
3 citations
Processes
Coal and Its By-products
1.04
article

Inertinite Reflectance in Relation to Combustion Temperature

Xiaoyong Fu, Di Gao, Zhenzhi Wang, Chi Cui, Di Chen, Shilong Zhao, Junjiao Yang
article en
3 citations

Abstract

Inertinite, a product of wildfire, holds important information on global temperature change. The relationship between its reflectance and temperature has been widely used to identify wildfire events in paleo-sedimentary environments, but the currently used equations relating inertinite reflectance and combustion temperature are subject to large errors. Therefore, to clarify the relationship between inertinite reflectance and combustion temperature further, we systematically analyzed changes in inertinite reflectance under different combustion durations based on the literature’s data. Results confirmed that inertinite reflectance is related to combustion duration. Disregarding combustion duration, the combustion equation is T=267.52+110.19×RoR2=0.91, where T is the combustion temperature, Ro% is the measured inertinite reflectance, and R2 is the correlation coefficient. Under a combustion duration of 1 h, the equation is T=273.57+113.89×RoR2=0.91, and under a combustion duration longer than 5 h (including 5 h), the equation is T=232.91+110.6×RoR2=0.94. These three equations not only account for the temporal factor, but are also more precise than the commonly used formula. This study provides a scientific basis for research on paleo-wildfire.

ProcessesVol. 12(11)
State Administration of Work Safety (CN), Henan Polytechnic University (CN)
Openalex Percentile: Top 23%
Coal and Its By-products
1.04
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