The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems

Abstract Finding a robust catalytic system for hydrogen production via dry reforming of methane (DRM) remains a challenge. Herein, MNi0.9Zr1−xYxO3 (M = Ce, La, and La0.6Ce0.4; x = 0.00, 0.05, 0.07, and 0.09) catalyst was prepared by the sol–gel method, tested for DRM and characterized by surface are...

Full description

Bibliographic Details
Main Authors: Ahmed E. Abasaeed, Mahmud L. Sofiu, Kenit Acharya, Ahmed I. Osman, Anis H. Fakeeha, Raja Lafi AL‐Otaibi, Ahmed A. Ibrahim, Abdulrhman S. Al‐Awadi, Hossein Bayahia, Salma A. Al‐Zahrani, Rawesh Kumar, Ahmed Sadeq Al‐Fatesh
Format: Article
Language:English
Published: Wiley 2023-04-01
Series:Energy Science & Engineering
Subjects:
Online Access:https://doi.org/10.1002/ese3.1402
_version_ 1797851207424802816
author Ahmed E. Abasaeed
Mahmud L. Sofiu
Kenit Acharya
Ahmed I. Osman
Anis H. Fakeeha
Raja Lafi AL‐Otaibi
Ahmed A. Ibrahim
Abdulrhman S. Al‐Awadi
Hossein Bayahia
Salma A. Al‐Zahrani
Rawesh Kumar
Ahmed Sadeq Al‐Fatesh
author_facet Ahmed E. Abasaeed
Mahmud L. Sofiu
Kenit Acharya
Ahmed I. Osman
Anis H. Fakeeha
Raja Lafi AL‐Otaibi
Ahmed A. Ibrahim
Abdulrhman S. Al‐Awadi
Hossein Bayahia
Salma A. Al‐Zahrani
Rawesh Kumar
Ahmed Sadeq Al‐Fatesh
author_sort Ahmed E. Abasaeed
collection DOAJ
description Abstract Finding a robust catalytic system for hydrogen production via dry reforming of methane (DRM) remains a challenge. Herein, MNi0.9Zr1−xYxO3 (M = Ce, La, and La0.6Ce0.4; x = 0.00, 0.05, 0.07, and 0.09) catalyst was prepared by the sol–gel method, tested for DRM and characterized by surface area and porosity, X‐ray diffraction, H2‐temperature programmed reduction, thermogravimetry, and transmission electron microscopy. In La0.6Ce0.4NiO3 catalyst, the substitution of Ni by 0.1% Zr results in a constant high catalytic activity (83% hydrogen yield at 800°C) due to the presence of reducible “NiO‐species interacted strongly with the support” (stable metallic Ni over reduced catalyst) and redox input by ceria phase for laying instant lattice oxygen during lag‐off period of CO2. Substitution of Ni by Zr and Y in the CeNiO3 catalyst system nurtures Ni3Y (providing highly stable metallic Ni for CH4 decomposition) and cerium yttrium oxide phases (providing strong redox input). CeNi0.9Zr0.01Y0.09O3 shows 85% H2 yield at 800°C.
first_indexed 2024-04-09T19:13:05Z
format Article
id doaj.art-f6d9ccee94a6436d8ae77740fc1f2a41
institution Directory Open Access Journal
issn 2050-0505
language English
last_indexed 2024-04-09T19:13:05Z
publishDate 2023-04-01
publisher Wiley
record_format Article
series Energy Science & Engineering
spelling doaj.art-f6d9ccee94a6436d8ae77740fc1f2a412023-04-06T12:27:42ZengWileyEnergy Science & Engineering2050-05052023-04-011141436145010.1002/ese3.1402The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systemsAhmed E. Abasaeed0Mahmud L. Sofiu1Kenit Acharya2Ahmed I. Osman3Anis H. Fakeeha4Raja Lafi AL‐Otaibi5Ahmed A. Ibrahim6Abdulrhman S. Al‐Awadi7Hossein Bayahia8Salma A. Al‐Zahrani9Rawesh Kumar10Ahmed Sadeq Al‐Fatesh11Chemical Engineering Department, College of Engineering King Saud University Riyadh Saudi ArabiaChemical Engineering Department, College of Engineering King Saud University Riyadh Saudi ArabiaDepartment of Chemistry Indus University Ahmedabad Gujarat IndiaSchool of Chemistry and Chemical Engineering Queen's University Belfast Belfast UKChemical Engineering Department, College of Engineering King Saud University Riyadh Saudi ArabiaKing Abdulaziz City for Science and Technology Riyadh Saudi ArabiaChemical Engineering Department, College of Engineering King Saud University Riyadh Saudi ArabiaChemical Engineering Department, College of Engineering King Saud University Riyadh Saudi ArabiaChemistry Department, Faculty of Science Albaha University Albaha Saudi ArabiaDepartment of Chemistry, College of Sciences University of Hail Hail Saudi ArabiaDepartment of Chemistry Indus University Ahmedabad Gujarat IndiaChemical Engineering Department, College of Engineering King Saud University Riyadh Saudi ArabiaAbstract Finding a robust catalytic system for hydrogen production via dry reforming of methane (DRM) remains a challenge. Herein, MNi0.9Zr1−xYxO3 (M = Ce, La, and La0.6Ce0.4; x = 0.00, 0.05, 0.07, and 0.09) catalyst was prepared by the sol–gel method, tested for DRM and characterized by surface area and porosity, X‐ray diffraction, H2‐temperature programmed reduction, thermogravimetry, and transmission electron microscopy. In La0.6Ce0.4NiO3 catalyst, the substitution of Ni by 0.1% Zr results in a constant high catalytic activity (83% hydrogen yield at 800°C) due to the presence of reducible “NiO‐species interacted strongly with the support” (stable metallic Ni over reduced catalyst) and redox input by ceria phase for laying instant lattice oxygen during lag‐off period of CO2. Substitution of Ni by Zr and Y in the CeNiO3 catalyst system nurtures Ni3Y (providing highly stable metallic Ni for CH4 decomposition) and cerium yttrium oxide phases (providing strong redox input). CeNi0.9Zr0.01Y0.09O3 shows 85% H2 yield at 800°C.https://doi.org/10.1002/ese3.1402CeNi0.9Zr1−xYxO3dry reformingH2 yieldLa0.6Ce0.4Ni0.9Zr1−xYxO3 catalyst systemmethane
spellingShingle Ahmed E. Abasaeed
Mahmud L. Sofiu
Kenit Acharya
Ahmed I. Osman
Anis H. Fakeeha
Raja Lafi AL‐Otaibi
Ahmed A. Ibrahim
Abdulrhman S. Al‐Awadi
Hossein Bayahia
Salma A. Al‐Zahrani
Rawesh Kumar
Ahmed Sadeq Al‐Fatesh
The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems
Energy Science & Engineering
CeNi0.9Zr1−xYxO3
dry reforming
H2 yield
La0.6Ce0.4Ni0.9Zr1−xYxO3 catalyst system
methane
title The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems
title_full The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems
title_fullStr The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems
title_full_unstemmed The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems
title_short The influence of Ni stability, redox, and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems
title_sort influence of ni stability redox and lattice oxygen capacity on catalytic hydrogen production via methane dry reforming in innovative metal oxide systems
topic CeNi0.9Zr1−xYxO3
dry reforming
H2 yield
La0.6Ce0.4Ni0.9Zr1−xYxO3 catalyst system
methane
url https://doi.org/10.1002/ese3.1402
work_keys_str_mv AT ahmedeabasaeed theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT mahmudlsofiu theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT kenitacharya theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT ahmediosman theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT anishfakeeha theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT rajalafialotaibi theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT ahmedaibrahim theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT abdulrhmansalawadi theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT hosseinbayahia theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT salmaaalzahrani theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT raweshkumar theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT ahmedsadeqalfatesh theinfluenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT ahmedeabasaeed influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT mahmudlsofiu influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT kenitacharya influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT ahmediosman influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT anishfakeeha influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT rajalafialotaibi influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT ahmedaibrahim influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT abdulrhmansalawadi influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT hosseinbayahia influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT salmaaalzahrani influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT raweshkumar influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems
AT ahmedsadeqalfatesh influenceofnistabilityredoxandlatticeoxygencapacityoncatalytichydrogenproductionviamethanedryreformingininnovativemetaloxidesystems