利用水滑石前驱体和纳米纤维为催化剂的甲烷重整制氢反应

T. Silva, M. Chaghouri, L. Tidahy, C. Gennequin, E. Abi-aad, M. Cesario, D. Macedo
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引用次数: 1

摘要

采用溶液吹丝法制备纳米纤维(NF)和共沉淀法制备水滑石前驱体(HT)两种不同的方法合成了CoNiMg4Al2催化剂。采用机械磨矿法对部分水滑石样品进行磨矿,以确定磨矿对催化性能的影响。在700℃条件下,对三种材料(NF、HT和GR)分别在甲烷(DRM、SRM)的干重整和蒸汽重整反应中进行了12h的稳定性试验。采用XRD和DTA/TG对煅烧后的催化剂和使用后的催化剂进行了表征。在SRM和DRM试验中,所有催化剂都具有活性;然而,纳米纤维在两种反应中表现出稍高的活性。甲烷干重整反应更容易形成碳沉积,导致地面催化剂失活。
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Methane reforming reactions for hydrogen production using hydrotalcite precursors and nanofibers based catalysts
CoNiMg4Al2 catalysts were synthesized using two different methods: solution blow spinning to produce nanofibers (NF), and co-precipitation to produce hydrotalcite precursors (HT). Part of the hydrotalcite sample was ground (GR) using mechanical milling to determine the effect of grinding on the catalytic performance. The three materials (NF, HT and GR) were tested in the dry and steam reforming of methane (DRM, SRM respectively) reactions during 12h stability tests at 700°C. The calcined and the used catalysts were characterized using XRD and DTA/TG analysis. All catalysts were active during the SRM and DRM tests; however, nanofibers showed a slightly higher activity in both reactions. The dry reforming of methane reaction was more susceptible to the formation of carbon deposition leading to the deactivation of the ground catalyst.
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