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Thermochemical storage performance of methane reforming with carbon dioxide using high temperature slag

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  • Ding, Jing
  • Wang, Yarong
  • Gu, Rong
  • Wang, Weilong
  • Lu, Jianfeng

Abstract

In iron and steel industry, production process is accompanied by a large amount of residual heat as high temperature slag. Methane reforming with carbon dioxide is one of the typical chemical energy storage processes, and it can be applied to use residual heat and reduce carbon dioxide emission. In this paper, thermochemical energy storage performance of methane reforming using high temperature slag is researched. According to experimental and numerical results, high temperature slag can be used as energy source and catalyst for thermochemical energy storage process by methane reforming. Slag is almost non-porous material, and its activation energy is higher than that of common catalyst, so slag only has high catalytic activity under high temperature. During methane reforming process, methane conversion and thermochemical storage efficiency first increases and then decreases with reaction rate dropping, and the position with maximum reaction rate gradually changes from front of slag bed to the end. Many factors including inlet conditions and reactor structure can affect thermochemical storage performance. Increase of slag initial temperature can improve methane conversion and thermochemical energy storage efficiency. As reactant flow rate decreases or slag bed length rises, methane conversion gradually increases, while thermochemical energy storage efficiency first increases and then decreases. With suitable conditions, thermochemical energy storage efficiency of slag can be higher than 60%.

Suggested Citation

  • Ding, Jing & Wang, Yarong & Gu, Rong & Wang, Weilong & Lu, Jianfeng, 2019. "Thermochemical storage performance of methane reforming with carbon dioxide using high temperature slag," Applied Energy, Elsevier, vol. 250(C), pages 1270-1279.
    • Handle: RePEc:eee:appene:v:250:y:2019:i:c:p:1270-1279
    DOI: 10.1016/j.apenergy.2019.05.064
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    References listed on IDEAS

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    1. Zhang, Hui & Wang, Hong & Zhu, Xun & Qiu, Yong-Jun & Li, Kai & Chen, Rong & Liao, Qiang, 2013. "A review of waste heat recovery technologies towards molten slag in steel industry," Applied Energy, Elsevier, vol. 112(C), pages 956-966.
    2. Bisio, G., 1997. "Energy recovery from molten slag and exploitation of the recovered energy," Energy, Elsevier, vol. 22(5), pages 501-509.
    3. Chen, Wei-Hsin & Lin, Shih-Cheng, 2016. "Characterization of catalytic partial oxidation of methane with carbon dioxide utilization and excess enthalpy recovery," Applied Energy, Elsevier, vol. 162(C), pages 1141-1152.
    4. Zhang, Wan & Li, Yingjie & He, Zirui & Ma, Xiaotong & Song, Haiping, 2017. "CO2 capture by carbide slag calcined under high-concentration steam and energy requirement in calcium looping conditions," Applied Energy, Elsevier, vol. 206(C), pages 869-878.
    5. Ishii, Hiromi & Hayashi, Tomoya & Tada, Hiroaki & Yokohama, Katsuhiko & Takashima, Ryuhei & Hayashi, Jun-ichiro, 2019. "Critical assessment of oxy-fuel integrated coal gasification combined cycles," Applied Energy, Elsevier, vol. 233, pages 156-169.
    6. Wang, Hong & Wu, Jun-Jun & Zhu, Xun & Liao, Qiang & Zhao, Liang, 2016. "Energy–environment–economy evaluations of commercial scale systems for blast furnace slag treatment: Dry slag granulation vs. water quenching," Applied Energy, Elsevier, vol. 171(C), pages 314-324.
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    1. Zhang, Huining & Dong, Jianping & Wei, Chao & Cao, Caifang & Zhang, Zuotai, 2022. "Future trend of terminal energy conservation in steelmaking plant: Integration of molten slag heat recovery-combustible gas preparation from waste plastics and CO2 emission reduction," Energy, Elsevier, vol. 239(PE).
    2. Ming-Sheng Ko & Tong-Bou Chang & Cho-Yu Lee & Jhong-Wei Huang & Chin-Fong Lim, 2021. "Optimization of Cyclone-Type Rotary Kiln Reactor for Carbonation of BOF Slag," Sustainability, MDPI, vol. 13(20), pages 1-11, October.

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