Abstract
Magnesium hydride (MgH2) is a prospective material for the storage of hydrogen in solid materials. It can also be envisaged for thermal energy storage applications since it has the potential to reversibly absorb hydrogen in large quantities, theoretically up to 7.6% by weight. Also, MgH2 is inexpensive, abundant, and environmentally friendly, but it operates at relatively high temperatures, and the kinetics of the hydrogenation process is slow. Mechanical milling and the addition of catalyst can alter the activation energy and the kinetic properties of the MgH2 phase. It is known that the addition of titanium hydride (TiH2) lowers the enthalpy and enhances the absorption of hydrogen from MgH2, titanium oxide (TiO2) enhances the desorption of hydrogen and niobium oxide (Nb2O5) enhances the absorption of hydrogen. In this work, the influences of the catalysts, as mentioned above on the properties of MgH2, were studied. The samples were analyzed in terms of crystal and microstructure as well as hydrogen storage properties using a pressure-composition isotherm (PCT)measurement. It has been found that the simultaneous addition of the three catalysts enhances the properties of MgH2, lowers the activation energy and operating temperature, increases the rate of intake and release of hydrogen, and provides the largest gravimetric hydrogen storage capacity.
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Gielen D., Boshell F., Saygin D., Bazilian M.D., Wagner N., Gorini R. The role of renewable energy in the global energy transformation Energy Strategy Rev., 24 (2019), 38–50.
Owusu P., Asumadu S.S. A review of renewable energy sources, sustainability issues and climate change mitigation Cogent Eng., 3 (2016) 1167990, 1–14.
Cassia R., Nocioni M., Correa-Aragunde N., Lamattina L. Climate change and the impact of greenhouse gasses: CO2 and NO, friends and foes of plant oxidative stress Front. Plant. Sci., 9 (2018) 273–278.
Clack B., York R. Carbon Metabolism: Global Capitalism, Climate Change, and the Biospheric Rift Theory and Society, 34(4) (2005), 391–428.
Mimura N. Sea-level rise caused by climate change and its implications for society Proc. Jpn. Acad. Ser. B Phys. Biol. Sci., 89 (7) (2013), 281–301.
Perera F. Pollution from fossil-fuel combustion is the leading environmental threat to global pediatric health and equity: Solutions exist Int J Environ Res Public Health, 15 (2018).
Ahuja D., Tatsutani M. Sustainable energy for developing countries Surv. Perspect. Integr. Environ. Soc., 2 (2009), 1–5.
Peters, G.P., Le Quéré, C., Andrew, R.M. et al. Towards real-time verification of CO2 emissions. Nature Clim. Change 7 (2017), 848–850.
Falcon-Lang H. J., The Early Carboniferous (Courceyan–Arundian) monsoonal climate of the British Isles: evidence from growth rings in fossil woods Geol.Mag. 136(2) (1999), 177–187.
Zuttel A, Remhof A, Borgschulte A, Friedrichs O. Hydrogen: the future energy carrier. Phil. Trans. R. Soc. A Math. Phys. Eng. Sci. 368 (2010), 3329–3342.
Andrews J, Shabani B. Where does hydrogen fit in a sustainable energy economy? Procedia Eng. 49 (2012), 15–25.
Ogden J.M. Hydrogen: the fuel of the future? Phys. Today. 55(4) (2002), 69–73.
Eberle U, Felderhoff M, Schuth F. Chemical, and physical solutions for hydrogen storage. Angew Chem Int Ed 48 (2009), 6608.
Myunghyun PS, Hye JP, Thazhe KP, Dae-Woon L. Hydrogen storage in metal-organic framework. Chem Rev. 112(2) (2012) 782–835.
Staffell I., Scamman D., Abad A.V., Balcombe P., Dodds P.E., Ekins P. The role of hydrogen and fuel cells in the global energy system Energy Environ. Sci. 12 (2019), 463–491.
Paul B., James B., Chester L., Line S., Jamie S., Adam H., Iain S., How to decarbonise international shipping: options for fuels, technologies and policies Energy Convers. Manage., 182 (2019), 72–88.
Berry G.D., Aceves S.M. The case for hydrogen in a carbon constrained world Journal of Energy Resources Technology, 127 (2005), 89–94.
Lebaek J., ed., GreenSynFuels. Economic and Technological Statement Regarding Integration and Storage of Renewable Energy in the Energy Sector by Production of Green Synthetic Fuels for Utilization in Fuel Cells, Final Project Report, EUDP Project Journal Number: 64010-0011, Danish Technological Institute, (2011).
Makridis S. S. Hydrogen storage and compression. In Methane and Hydrogen for Energy Storage; Carriveau, R., Ting, D.S.K., Eds.; IET Digital Library: Stevenage, UK, (2016), 1–28
Manoharan, Y.; Hosseini, S.E.; Butler, B.; Alzhahrani, H.; Senior, B.T.F.; Ashuri, T.; Krohn, J. Hydrogen Fuel Cell Vehicles; Current Status and Future Prospect. Appl. Sci. 9 (2019), 2296–22300
Andersson J., Grönkvist S. Large-scale storage of hydrogen Int. J Hydrogen Energy, 44 (2019), 11901–11919
Blagojevic V.A., Minic D.M., Minic D.G., Novakovic J.G., Hydrogen economy: modern concepts, challenges and perspectives. In: Minic D. (ed) Hydrogen energy - challenges and perspectives (2012).
Rosen M.A., Koohi-Fayegh S. The prospects for hydrogen as an energy carrier: an overview of hydrogen energy and hydrogen energy systems Energy, Ecol Environ, 1 (2016), 10–29.
Dornheim M. Thermodynamics of metal hydrides: tailoring reaction enthalpies of hydrogen storage materials. In: Moreno-Pirajan JC, editor. Thermodynamics—interaction studies–solids, liquids and gases. Rijeka: InTech; (2011), 891–918.
Aymard L., Oumellal Y., Bonnet J.-P. Metal hydrides: an innovative and challenging conversion reaction anode for lithium-ion batteries. Beilstein J. Nanotechnol. 6, (2015), 1821–1839.
Uesugi H., Sugiyama T., Nii H., Ito T., Nakatsugawa I. Industrial production of MgH2 and its application J Alloys Compd, 509 (2011), 650–653.
Li B., Li J.D., Shao H.Y., He L.Q. Mg-based hydrogen absorbing materials for thermal energy storage-A review Appl Sci Basel, 8 (2018), 1375–1382.
Zhang J., Li Z., Wu Y., Guo X., Ye J., Yuan B. Recent advances on the thermal destabilization of Mg-based hydrogen storage materials. RSC Adv. 9 (2019), 408–428.
Jain A., Agarwal S., Kumar S., Yamaguchi S., Miyaoka H., Kojima Y., Ichikawa How does TiF4 affect the decomposition of MgH2 and its complex variants?–an XPS investigation J. Mater. Chem., 5 (30) (2017), 15543–15551.
Wang Y. Recent advances in additive-enhanced magnesium hydride for hydrogen storage Prog Nat Sci Mater Int, 27 (2017), 41–49.
Huang Y., Xia G., Chen J., Zhang B., Li Q., Yu X. One-step uniform growth of magnesium hydride nanoparticles on graphene Prog Nat Sci, 27 (1) (2017), 81–87.
Yartys V.A., Lototskyy M.V., Akiba E., Albert R., Antonov V.E., Ares J.R. Magnesium based materials for hydrogen based energy storage: past, present and future Int J Hydrogen Energy, 44 (2019), 7809–7859.
Westerwaal R.J., Haije W.G. Evaluation solid-state hydrogen storage systems, current status ECN-E-08-043 (2008), 74.
Aguey-Zinsou K.-F., Ares-Fernandez J.-R. Hydrogen in magnesium: New perspectives toward functional stores. Energy Environ. Sci. 3 (2010), 526–543.
Huot J., Ravnsbæk D., Zhang J., Cuevas F., Latroche M., Jensen T. Mechanochemical synthesis of hydrogen storage materials Prog Mater Sci, 58 (1) (2013), 30–75.
Nobuko H., Takayuki I., Hironobu F. Catalytic effect of nanoparticle 3d-transition metals on hydrogen storage properties in magnesium hydride MgH2 prepared by mechanical milling J Phys Chem B, 109 (2005), 7188–7194.
Huot J., Ravnsbæk D.B., Zhang J., Cuevas F., Latroche M., Jensen T.R. Mechanochemical synthesis of hydrogen storage materials Prog Mater Sci, 58 (1) (2013), 30–75.
Billur S., Lamari-Darkrim F., Hirscher M. Metal hydride materials for solid hydrogen storage: a review Int J Hydrog Energy, 32 (2007), 1121–1140.
Yadav T.K., Yadav R.M., Singh D.P. Mechanical milling: a top down approach for the synthesis of nanomaterials and nanocomposites Nanosci Nanotechnol, 2 (3) (2012), 22–48.
Lobo N., Takasaki A., Mineo K., Klimkowicz A., Goc K. Stability investigation of the γ-MgH2 phase synthesized by high-energy ball milling Int. J. Hydrog. Energ 44(55) (2019), 29179–29188
Pavel R.-A., Fermín C., Michel L. Optimization of TiH2 content for fast and efficient hydrogen cycling of MgH2-TiH2 nanocomposites Int. J. Hydrog. Energy 43(34) (2018), 16774–16781.
Radojka V. Theoretical and experimental study of TiO2 influence of on hydrogen sorption in MgH2/Mg system, faculty of physical chemistry, University of Belgrade Ph.D. theses 2017
Webb C.J., A review of catalyst-enhanced magnesium hydride as a hydrogen storage material. J. Phys. Chem. Solids 84 (2015), 96–106.
Hilman M.A.R., Alief M.S., Klimkowicz A., Uematsu S., Takasaki A. Effects of KNbO3 catalyst on hydrogen sorption kinetics of MgH2 J. Hydrog. Energy 44 (2019) 29196–29202.
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Lobo, N., Klimkowicz, A. & Takasaki, A. Effect of TiO2 + Nb2O5 + TiH2 Catalysts on Hydrogen Storage Properties of Magnesium Hydride. MRS Advances 5, 1059–1069 (2020). https://doi.org/10.1557/adv.2020.29
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DOI: https://doi.org/10.1557/adv.2020.29