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3 An overview of recent works on Ni silica-based catalysts for the dry reforming of methane

  • Oscar Daoura , Maya Boutros und Franck Launay
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Abstract

CO2 reforming of CH4, also known as dry reforming of methane (DRM), is considered, nowadays, as an excellent option to produce H2 and CO (syngas) further used notably for the production of higher alkanes and oxygenates. Owing to their reasonable performances and economic advantages, nickel-based heterogeneous catalysts are considered as excellent candidates for DRM. However, these materials suffer from severe drawbacks such as sintering of the active phase and coke (carbon) deposition, which lead, in some cases, to sever deactivations. Several synthesis strategies, mostly based on the stabilization of nickel by an oxide support, have been developed in order to overcome those obstacles. Silica-based materials are widely investigated due to their availability, high surface area, and the confinement capacity brought by their controlled porosity. This review summarizes the progress made between 2015 and 2018 in the design of Ni-/silica-based catalysts for the dry reforming of methane. The different strategies implemented for the confinement and the control of nickel particles size will be discussed in the light of the performances of the resulting catalysts.

Abstract

CO2 reforming of CH4, also known as dry reforming of methane (DRM), is considered, nowadays, as an excellent option to produce H2 and CO (syngas) further used notably for the production of higher alkanes and oxygenates. Owing to their reasonable performances and economic advantages, nickel-based heterogeneous catalysts are considered as excellent candidates for DRM. However, these materials suffer from severe drawbacks such as sintering of the active phase and coke (carbon) deposition, which lead, in some cases, to sever deactivations. Several synthesis strategies, mostly based on the stabilization of nickel by an oxide support, have been developed in order to overcome those obstacles. Silica-based materials are widely investigated due to their availability, high surface area, and the confinement capacity brought by their controlled porosity. This review summarizes the progress made between 2015 and 2018 in the design of Ni-/silica-based catalysts for the dry reforming of methane. The different strategies implemented for the confinement and the control of nickel particles size will be discussed in the light of the performances of the resulting catalysts.

Kapitel in diesem Buch

  1. Frontmatter I
  2. Series editor preface VII
  3. About the series editor IX
  4. Contents XI
  5. List of contributors XXI
  6. Hydrogen: Presents Accomplishments and Far-Reaching Promises 1
  7. Forewords
  8. Foreword 9
  9. Foreword 15
  10. Extended Introductions
  11. Hydrogen: why the times to scale have come 29
  12. Hydrogen key to a carbon-free energy system 43
  13. The European hydrogen strategy 105
  14. Introduction to the hydrogen books 117
  15. Geopolitics of hydrogen 127
  16. Volume I: Hydrogen production and energy transition
  17. 1 An overview of today’s industrial processes to make hydrogen and future developments’ trend 137
  18. 2 Catalytic autothermal reforming for hydrogen production: from large-scale plant to distributed energy system 171
  19. 3 An overview of recent works on Ni silica-based catalysts for the dry reforming of methane 193
  20. 4 CO2 hydrogenation by plasma-assisted catalysis for fuel production: power-to-gas application 213
  21. 5 Development perspective for green hydrogen production 251
  22. 6 Hydrogen production from biomass pyrolysis 279
  23. 7 Gasification of biomass and plastic waste 303
  24. 8 Water electrolysis as an environmentally friendly source of hydrogen 331
  25. 9 Electrolysis for coupling the production of pure hydrogen and the valorization of organic wastes 359
  26. 10 Renewable power-to-hydrogen systems and sector coupling power-mobility 381
  27. 11 Photoelectrocatalytic H2 production: current and future challenges 401
  28. 12 Biological water splitting 427
  29. 13 Fuel processing for fuel cells and energyrelated applications 469
  30. 14 Emergent-based well-being design for a hydrogen-based community: social acceptance and societal evolution for novel hydrogen technology 493
  31. 15 Eni’s projects in Italy for hydrogen production 519
  32. Conclusions and Recommendations: “The Future of Hydrogen” 543
  33. Index 551
Heruntergeladen am 19.10.2025 von https://www.degruyterbrill.com/document/doi/10.1515/9783110596250-011/html
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