High Performance of a Structured Ni-Based Catalyst for Autothermal Dry Reforming of Methane
Bralin Dwiratna, Kazuaki Hirao, Ryo Watanabe, Choji Fukuhara
Abstract
Bralin Dwiratna, Kazuaki Hirao, Ryo Watanabe, Choji Fukuhara
Abstract
Autothermal dry reforming of methane (ATR-DRM) has gained considerable research attention for its application in the conversion of methane and carbon dioxide to valuable synthesis gas (syngas). However, granular Ni-based catalysts offer limited stability and durability when used in the dry reforming of methane (DRM). Here, the performance of a honeycomb-type Ni/Al2O3 structured catalyst during syngas production was investigated under ATR-DRM conditions. The catalyst was successfully prepared on an aluminum-fin substrate by a combination of sol–gel and electroless plating methods. The addition of oxygen during the DRM significantly enhanced the reforming performance and considerably suppressed coke deposition. Furthermore, the Ni/Al2O3 structured catalyst could reduce hot spot formation and improve energy efficiency. Therefore, ATR-DRM using a structured catalyst is a promising technology that promotes process intensification.
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Autothermal dry reforming of methane (ATR-DRM) has gained considerable research attention for its application in the conversion of methane and carbon dioxide to valuable synthesis gas (syngas). However, granular Ni-based catalysts offer limited stability and durability when used in the dry reforming of methane (DRM). Here, the performance of a honeycomb-type Ni/Al2O3 structured catalyst during syngas production was investigated under ATR-DRM conditions. The catalyst was successfully prepared on an aluminum-fin substrate by a combination of sol–gel and electroless plating methods. The addition of oxygen during the DRM significantly enhanced the reforming performance and considerably suppressed coke deposition. Furthermore, the Ni/Al2O3 structured catalyst could reduce hot spot formation and improve energy efficiency. Therefore, ATR-DRM using a structured catalyst is a promising technology that promotes process intensification.
Key concepts: Carbon dioxide reforming, Methane reformer, Syngas, Methane, Catalysis, Syngas to gasoline plus, Chemical engineering, Materials science