Inter-influence of Temperature-time-reflectivity in the Coal Metamorphism Thermodynamics Equation (CMTE)

Z. Xuemei, Mao Qinghua, Li Dong, Hao Jingyuan
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Abstract

The influence and control of time and temperature on coalification are comprehensive. In order to quantitatively analyze the thermal kinetics of coal metamorphosis process by temperature and time, the qualitative analysis of coal metamorphosis thermodynamic equation (CMTE) based on Wu Chonglong was further verified from the mathematical point of view. Wu Chong Long's Coal Metamorphism Thermodynamics Equation (CMTE) is a ternary equation containing coal forming period or metamorphic age (time), metamorphic temperature (temperature) and metamorphic degree (reflectivity). The temperature calculated by fixing time and reflectivity is the lowest theoretical metamorphic temperature. The reflectivity calculated by fixing time and temperature is the maximum theoretical metamorphic degree. The “time-temperature ratio” is defined as the equivalent of extending million years to increasing 1°C temperature regarding coal metamorphism. This ratio is used to compare the impact of extending time or increasing temperature on improving the metamorphic degree and its significance. The results showed that in the same coal forming period, the ratio is decreased with the reflectivity increasing; at the same reflectivity, the ratio decreased with younger coal forming period. At Ro=6.1%, the calculated ratio is 3.67, which means, at Ro=6.1%, increasing 1°C is equaled extending 3.67 million.
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煤变质热力学方程(CMTE)中温度-时间-反射率的相互影响
时间和温度对煤化的影响和控制是全面的。为了定量分析煤的温度和时间对煤变质过程的热动力学,从数学的角度进一步验证了基于吴崇龙的煤变质热力学方程(CMTE)的定性分析。吴崇龙煤变质热力学方程(CMTE)是包含煤的成煤期或变质年龄(时间)、变质温度(温度)和变质程度(反射率)的三元方程。由固定时间和反射率计算得到的温度是最低的理论变质温度。由固定时间和固定温度计算的反射率为理论最大变质程度。对于煤变质作用,“时温比”定义为延长百万年相当于温度升高1℃。该比值用于比较延长时间和提高温度对提高变质程度的影响及其意义。结果表明:在同一成煤期,反射率随反射率的增大而减小;在相同反射率下,成煤年龄越小,反射率比值越小。在Ro=6.1%时,计算出的比值为3.67,即在Ro=6.1%时,增加1℃等于增加367万℃。
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