Kinetic Model Research on Drying Characteristics of Composite Green Pellet in Rotary Hearth Furnace

The drying process of green pellet is the intermediate link of direct reduction in rotary hearth furnace, which can reduce energy consumption, prevent green pellet from bursting during drying and reduce pulverization rate. In this study, the effects on the drying rate of raw metallurgical dusts pell...

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Published inISIJ International Vol. 63; no. 8; pp. 1308 - 1315
Main Authors Li, Qiang, She, Xuefeng, Wang, Jingsong, Xue, Qingguo, Li, Weiguo, Lin, Peifang
Format Journal Article
LanguageEnglish
Published The Iron and Steel Institute of Japan 15.08.2023
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Abstract The drying process of green pellet is the intermediate link of direct reduction in rotary hearth furnace, which can reduce energy consumption, prevent green pellet from bursting during drying and reduce pulverization rate. In this study, the effects on the drying rate of raw metallurgical dusts pellet at a hot air flow rate of 1 m/s and drying temperatures of 211°C, 254°C, 282°C and 314°C was investigated to clarify the drying characteristics of the green pellet. The results show that there were accelerated drying stage, constant drying stage and deceleration drying stage in the drying process of green pellet. The drying temperature had a significant effect on the dehydration rate during the drying process. The effective diffusion coefficient increased with the increase of drying temperature, and the activation energy of the whole drying process was 10.4 kJ/mol. Then the drying fitting models of Page (III), Lewis, Wang and Singh, and Weibull are used to describe the drying kinetics of green pellet. The fitting results show that the green pellet drying process is consistent with the Page (III) and Weibull models. Finally, the Weibull model was selected to compare the experimental values with the fitted values and the results indicate that the fitting model can well describe the actual drying process.
AbstractList The drying process of green pellet is the intermediate link of direct reduction in rotary hearth furnace, which can reduce energy consumption, prevent green pellet from bursting during drying and reduce pulverization rate. In this study, the effects on the drying rate of raw metallurgical dusts pellet at a hot air flow rate of 1 m/s and drying temperatures of 211°C, 254°C, 282°C and 314°C was investigated to clarify the drying characteristics of the green pellet. The results show that there were accelerated drying stage, constant drying stage and deceleration drying stage in the drying process of green pellet. The drying temperature had a significant effect on the dehydration rate during the drying process. The effective diffusion coefficient increased with the increase of drying temperature, and the activation energy of the whole drying process was 10.4 kJ/mol. Then the drying fitting models of Page (III), Lewis, Wang and Singh, and Weibull are used to describe the drying kinetics of green pellet. The fitting results show that the green pellet drying process is consistent with the Page (III) and Weibull models. Finally, the Weibull model was selected to compare the experimental values with the fitted values and the results indicate that the fitting model can well describe the actual drying process.
ArticleNumber ISIJINT-2023-063
Author Xue, Qingguo
Li, Qiang
She, Xuefeng
Wang, Jingsong
Lin, Peifang
Li, Weiguo
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  fullname: Lin, Peifang
  organization: Guangdong Huaxin Environmental Protection Technology Co., Ltd
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SubjectTerms drying characteristics
drying kinetics
drying rate
metallurgical dusts
pellet
Title Kinetic Model Research on Drying Characteristics of Composite Green Pellet in Rotary Hearth Furnace
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