High performance Ni catalysts prepared by freeze drying for efficient dry reforming of methane

[Display omitted] •Freeze-drying of NiMgAl LDH produces Ni catalysts with high Ni dispersion.•Exceptional activity and stability were demonstrated for dry reforming of methane.•High Mg/Al ratio favors enhanced catalyst stability and coke resistance.•Rate measurements indicate a change of rate-determ...

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Veröffentlicht in:Applied catalysis. B, Environmental Environmental, 2020-10, Vol.275, p.119109, Article 119109
Hauptverfasser: Huang, Jijiang, Yan, Yong, Saqline, Syed, Liu, Wen, Liu, Bin
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container_title Applied catalysis. B, Environmental
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creator Huang, Jijiang
Yan, Yong
Saqline, Syed
Liu, Wen
Liu, Bin
description [Display omitted] •Freeze-drying of NiMgAl LDH produces Ni catalysts with high Ni dispersion.•Exceptional activity and stability were demonstrated for dry reforming of methane.•High Mg/Al ratio favors enhanced catalyst stability and coke resistance.•Rate measurements indicate a change of rate-determining step at high temperatures.•Effects of sintering, oxidation and coking to catalyst deactivation were investigated. For supported metal catalysts, the architectures of the supports are as important as the chemical compositions of the catalysts and the morphologies of the supported metal particles. In this work, we report a simple and versatile method for preparing Ni nanoparticle catalysts supported on Mg-Al mixed oxides for the dry reforming of methane. The catalysts were prepared by freeze drying of Ni-Mg-Al layered double hydroxide precursors, followed by calcination and H2 reduction. Compared to Ni/Mg-Al-O catalysts prepared by oven drying, the freeze-dried catalysts retain a unique, loosely packed platelet structure with high macroporosity, which gives rise to high dispersion, high DRM activity and high resistance against deactivation. At 800 °C, the catalyst consistently achieves equilibrium CH4 conversion of 95% over 100 h time on stream with a of 40 L-CH4 h−1 g-cat−1. The DRM activity seen in the present study supersedes other Ni-based catalysts reported in the literature.
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For supported metal catalysts, the architectures of the supports are as important as the chemical compositions of the catalysts and the morphologies of the supported metal particles. In this work, we report a simple and versatile method for preparing Ni nanoparticle catalysts supported on Mg-Al mixed oxides for the dry reforming of methane. The catalysts were prepared by freeze drying of Ni-Mg-Al layered double hydroxide precursors, followed by calcination and H2 reduction. Compared to Ni/Mg-Al-O catalysts prepared by oven drying, the freeze-dried catalysts retain a unique, loosely packed platelet structure with high macroporosity, which gives rise to high dispersion, high DRM activity and high resistance against deactivation. At 800 °C, the catalyst consistently achieves equilibrium CH4 conversion of 95% over 100 h time on stream with a of 40 L-CH4 h−1 g-cat−1. 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B, Environmental</title><description>[Display omitted] •Freeze-drying of NiMgAl LDH produces Ni catalysts with high Ni dispersion.•Exceptional activity and stability were demonstrated for dry reforming of methane.•High Mg/Al ratio favors enhanced catalyst stability and coke resistance.•Rate measurements indicate a change of rate-determining step at high temperatures.•Effects of sintering, oxidation and coking to catalyst deactivation were investigated. For supported metal catalysts, the architectures of the supports are as important as the chemical compositions of the catalysts and the morphologies of the supported metal particles. In this work, we report a simple and versatile method for preparing Ni nanoparticle catalysts supported on Mg-Al mixed oxides for the dry reforming of methane. The catalysts were prepared by freeze drying of Ni-Mg-Al layered double hydroxide precursors, followed by calcination and H2 reduction. 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subjects Aluminum
Carbon deposition
Catalysts
Chemical composition
Deactivation
Drying ovens
Freeze drying
High resistance
Layered double hydroxides
Macroporosity
Magnesium
Metal particles
Methane
Methane dry reforming
Mixed oxides
Morphology
Nanoparticles
Nickel
Reforming
Strong metal-support interaction
title High performance Ni catalysts prepared by freeze drying for efficient dry reforming of methane
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