Promotional Role of Pd Over Ni Catalyst Dispersed Over Sc‐ZrO₂ for Methane Partial Oxidation: Crystallinity and Reducibility Effects

ABSTRACT Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O2, methane can be catalytically converted to hydrogen‐rich syngas. This reaction is specified as partial oxidation of methane (POM). Herein, Ni dispersed over “scandia‐stabi...

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Published inEnergy science & engineering Vol. 13; no. 8; pp. 3935 - 3944
Main Authors Alwadai, Norah, Acharya, Kenit, Ibrahim, Ahmed A., Alreshaidan, Salwa Bader, Bayazed, Mohammed O., Osman, Ahmed I., Alotaibi, Nawaf N., Qahtan, Talal F., Cao, Gui‐Ping, Kumar, Rawesh, Al‐Fatesh, Ahmed S.
Format Journal Article
LanguageEnglish
Published London John Wiley & Sons, Inc 01.08.2025
Wiley
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ISSN2050-0505
2050-0505
DOI10.1002/ese3.70140

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Abstract ABSTRACT Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O2, methane can be catalytically converted to hydrogen‐rich syngas. This reaction is specified as partial oxidation of methane (POM). Herein, Ni dispersed over “scandia‐stabilized‐zirconia” (5Ni/DSZ) and the promotional effect of Pd (0.01 to 0.1 wt%) are investigated for POM and characterized with surface area and porosity measurements, X‐ray diffraction, Raman spectroscopy, temperature‐programmed studies, and thermogravimetry. During the POM, the initial population of active Ni sites decreases in non‐promoted catalysts due to oxidation under oxygen, upon loading of 0.02 wt.% Pd over 5Ni/DSZ, the active site population is preserved against oxygen during the POM due to improved metal support interaction between Ni and long‐range order crystallites of support (like cubic ZrO2 and orthorhombic Sc2Zr5O13). 5Ni0.02 Pd/DSZ catalyst acquired more than 80% catalytic activity (CH4 conversion and H2 yield) with 2.5 H2/CO ratio at 600°C during 240 min on stream. The 5Ni0.02 Pd/DSZ catalyst also maintained more than 70% H2 yield with H2/CO ratio ~2 during 30 h time on stream. The thermostable 5Ni0.02 Pd/DSZ catalyst may be recommended for hydrogen‐rich syngas production with high H2‐yield through POM.
AbstractList Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O 2 , methane can be catalytically converted to hydrogen‐rich syngas. This reaction is specified as partial oxidation of methane (POM). Herein, Ni dispersed over “scandia‐stabilized‐zirconia” (5Ni/DSZ) and the promotional effect of Pd (0.01 to 0.1 wt%) are investigated for POM and characterized with surface area and porosity measurements, X‐ray diffraction, Raman spectroscopy, temperature‐programmed studies, and thermogravimetry. During the POM, the initial population of active Ni sites decreases in non‐promoted catalysts due to oxidation under oxygen, upon loading of 0.02 wt.% Pd over 5Ni/DSZ, the active site population is preserved against oxygen during the POM due to improved metal support interaction between Ni and long‐range order crystallites of support (like cubic ZrO 2 and orthorhombic Sc 2 Zr 5 O 13 ). 5Ni0.02 Pd/DSZ catalyst acquired more than 80% catalytic activity (CH 4 conversion and H 2 yield) with 2.5 H 2 /CO ratio at 600°C during 240 min on stream. The 5Ni0.02 Pd/DSZ catalyst also maintained more than 70% H 2 yield with H 2 /CO ratio ~2 during 30 h time on stream. The thermostable 5Ni0.02 Pd/DSZ catalyst may be recommended for hydrogen‐rich syngas production with high H 2 ‐yield through POM.
ABSTRACT Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O2, methane can be catalytically converted to hydrogen‐rich syngas. This reaction is specified as partial oxidation of methane (POM). Herein, Ni dispersed over “scandia‐stabilized‐zirconia” (5Ni/DSZ) and the promotional effect of Pd (0.01 to 0.1 wt%) are investigated for POM and characterized with surface area and porosity measurements, X‐ray diffraction, Raman spectroscopy, temperature‐programmed studies, and thermogravimetry. During the POM, the initial population of active Ni sites decreases in non‐promoted catalysts due to oxidation under oxygen, upon loading of 0.02 wt.% Pd over 5Ni/DSZ, the active site population is preserved against oxygen during the POM due to improved metal support interaction between Ni and long‐range order crystallites of support (like cubic ZrO2 and orthorhombic Sc2Zr5O13). 5Ni0.02 Pd/DSZ catalyst acquired more than 80% catalytic activity (CH4 conversion and H2 yield) with 2.5 H2/CO ratio at 600°C during 240 min on stream. The 5Ni0.02 Pd/DSZ catalyst also maintained more than 70% H2 yield with H2/CO ratio ~2 during 30 h time on stream. The thermostable 5Ni0.02 Pd/DSZ catalyst may be recommended for hydrogen‐rich syngas production with high H2‐yield through POM.
ABSTRACT Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O2, methane can be catalytically converted to hydrogen‐rich syngas. This reaction is specified as partial oxidation of methane (POM). Herein, Ni dispersed over “scandia‐stabilized‐zirconia” (5Ni/DSZ) and the promotional effect of Pd (0.01 to 0.1 wt%) are investigated for POM and characterized with surface area and porosity measurements, X‐ray diffraction, Raman spectroscopy, temperature‐programmed studies, and thermogravimetry. During the POM, the initial population of active Ni sites decreases in non‐promoted catalysts due to oxidation under oxygen, upon loading of 0.02 wt.% Pd over 5Ni/DSZ, the active site population is preserved against oxygen during the POM due to improved metal support interaction between Ni and long‐range order crystallites of support (like cubic ZrO2 and orthorhombic Sc2Zr5O13). 5Ni0.02 Pd/DSZ catalyst acquired more than 80% catalytic activity (CH4 conversion and H2 yield) with 2.5 H2/CO ratio at 600°C during 240 min on stream. The 5Ni0.02 Pd/DSZ catalyst also maintained more than 70% H2 yield with H2/CO ratio ~2 during 30 h time on stream. The thermostable 5Ni0.02 Pd/DSZ catalyst may be recommended for hydrogen‐rich syngas production with high H2‐yield through POM.
Author Qahtan, Talal F.
Alwadai, Norah
Alreshaidan, Salwa Bader
Acharya, Kenit
Al‐Fatesh, Ahmed S.
Alotaibi, Nawaf N.
Ibrahim, Ahmed A.
Kumar, Rawesh
Osman, Ahmed I.
Cao, Gui‐Ping
Bayazed, Mohammed O.
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Snippet ABSTRACT Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O2, methane can be catalytically...
Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O 2 , methane can be catalytically...
ABSTRACT Natural emissions of the highly potent greenhouse gas methane cannot be completely prevented, but in the presence of O2, methane can be catalytically...
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SubjectTerms Catalysis
Catalysts
Catalytic activity
Catalytic converters
crystallinity
Crystallites
Greenhouse gases
Hydrogen
Incorporation
Methane
Ni catalyst
Nitrates
Oxidation
Oxygen
Palladium
Pd‐promoter
POM
Porosity
Raman spectroscopy
reducibility
scandia‐stabilized‐zirconia
Scandium oxides
Synthesis gas
Temperature
Thermogravimetry
Zirconium
Zirconium dioxide
Zirconium oxides
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Title Promotional Role of Pd Over Ni Catalyst Dispersed Over Sc‐ZrO₂ for Methane Partial Oxidation: Crystallinity and Reducibility Effects
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fese3.70140
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