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Advances in hydrogen production by thermochemical water decomposition: A review

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  • Rosen, Marc A.

Abstract

Hydrogen demand as an energy currency is anticipated to rise significantly in the future, with the emergence of a hydrogen economy. Hydrogen production is a key component of a hydrogen economy. Several production processes are commercially available, while others are under development including thermochemical water decomposition, which has numerous advantages over other hydrogen production processes. Recent advances in hydrogen production by thermochemical water decomposition are reviewed here. Hydrogen production from non-fossil energy sources such as nuclear and solar is emphasized, as are efforts to lower the temperatures required in thermochemical cycles so as to expand the range of potential heat supplies. Limiting efficiencies are explained and the need to apply exergy analysis is illustrated. The copper–chlorine thermochemical cycle is considered as a case study. It is concluded that developments of improved processes for hydrogen production via thermochemical water decomposition are likely to continue, thermochemical hydrogen production using such non-fossil energy will likely become commercial, and improved efficiencies are expected to be obtained with advanced methodologies like exergy analysis. Although numerous advances have been made on sulphur–iodine cycles, the copper–chlorine cycle has significant potential due to its requirement for process heat at lower temperatures than most other thermochemical processes.

Suggested Citation

  • Rosen, Marc A., 2010. "Advances in hydrogen production by thermochemical water decomposition: A review," Energy, Elsevier, vol. 35(2), pages 1068-1076.
  • Handle: RePEc:eee:energy:v:35:y:2010:i:2:p:1068-1076
    DOI: 10.1016/j.energy.2009.06.018
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    References listed on IDEAS

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    9. Lange, M. & Roeb, M. & Sattler, C. & Pitz-Paal, R., 2014. "T–S diagram efficiency analysis of two-step thermochemical cycles for solar water splitting under various process conditions," Energy, Elsevier, vol. 67(C), pages 298-308.
    10. Wang, Shuofeng & Ji, Changwei & Zhang, Jian & Zhang, Bo, 2011. "Comparison of the performance of a spark-ignited gasoline engine blended with hydrogen and hydrogen–oxygen mixtures," Energy, Elsevier, vol. 36(10), pages 5832-5837.
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    12. Hosseini, Seyed Ehsan & Wahid, Mazlan Abdul, 2016. "Hydrogen production from renewable and sustainable energy resources: Promising green energy carrier for clean development," Renewable and Sustainable Energy Reviews, Elsevier, vol. 57(C), pages 850-866.
    13. Abánades, A. & Rubbia, C. & Salmieri, D., 2012. "Technological challenges for industrial development of hydrogen production based on methane cracking," Energy, Elsevier, vol. 46(1), pages 359-363.
    14. Sun, Xue & Li, Xiaofei & Zeng, Jingxin & Song, Qiang & Yang, Zhen & Duan, Yuanyuan, 2023. "Energy and exergy analysis of a novel solar-hydrogen production system with S–I thermochemical cycle," Energy, Elsevier, vol. 283(C).
    15. Ghandehariun, S. & Wang, Z. & Naterer, G.F. & Rosen, M.A., 2015. "Experimental investigation of molten salt droplet quenching and solidification processes of heat recovery in thermochemical hydrogen production," Applied Energy, Elsevier, vol. 157(C), pages 267-275.
    16. Gokon, Nobuyuki & Suda, Toshinori & Kodama, Tatsuya, 2015. "Oxygen and hydrogen productivities and repeatable reactivity of 30-mol%-Fe-, Co-, Ni-, Mn-doped CeO2−δ for thermochemical two-step water-splitting cycle," Energy, Elsevier, vol. 90(P2), pages 1280-1289.
    17. Temiz, Mert & Dincer, Ibrahim, 2021. "Concentrated solar driven thermochemical hydrogen production plant with thermal energy storage and geothermal systems," Energy, Elsevier, vol. 219(C).
    18. Obara, Shin’ya & Watanabe, Seizi & Rengarajan, Balaji, 2011. "Operation method study based on the energy balance of an independent microgrid using solar-powered water electrolyzer and an electric heat pump," Energy, Elsevier, vol. 36(8), pages 5200-5213.
    19. Santos, D.M.F. & Šljukić, B. & Sequeira, C.A.C. & Macciò, D. & Saccone, A. & Figueiredo, J.L., 2013. "Electrocatalytic approach for the efficiency increase of electrolytic hydrogen production: Proof-of-concept using platinum--dysprosium alloys," Energy, Elsevier, vol. 50(C), pages 486-492.
    20. El-Askary, W.A. & Sakr, I.M. & Ibrahim, K.A. & Balabel, A., 2015. "Hydrodynamics characteristics of hydrogen evolution process through electrolysis: Numerical and experimental studies," Energy, Elsevier, vol. 90(P1), pages 722-737.
    21. Li, Guiqiang & Li, Jinpeng & Yang, Ruoxi & Chen, Xiangjie, 2022. "Performance analysis of a hybrid hydrogen production system in the integrations of PV/T power generation electrolytic water and photothermal cooperative reaction," Applied Energy, Elsevier, vol. 323(C).
    22. Lin, Kuang C. & Lin, Yuan-Chung & Hsiao, Yi-Hsing, 2014. "Microwave plasma studies of Spirulina algae pyrolysis with relevance to hydrogen production," Energy, Elsevier, vol. 64(C), pages 567-574.
    23. Li, Lin & Song, Yongchen & Jiang, Bo & Wang, Kaiqiang & Zhang, Qian, 2017. "A novel oxygen carrier for chemical looping reforming: LaNiO3 perovskite supported on montmorillonite," Energy, Elsevier, vol. 131(C), pages 58-66.
    24. Song, Lee-hwa & Kang, Hyun Woo & Park, Seung Bin, 2012. "Thermally stable iron based redox catalysts for the thermo-chemical hydrogen generation from water," Energy, Elsevier, vol. 42(1), pages 313-320.

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