In-situ neutron diffraction during reversible deuterium loading in Ti-rich and Mn-substituted Ti(Fe,Mn)0.90 alloys
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M. Latroche | F. Cuevas | S. Deledda | M. Sørby | G. Capurso | M. Baricco | Jussara Barale | E. Dematteis
[1] M. Hirscher,et al. Research and development of hydrogen carrier based solutions for hydrogen compression and storage , 2022, Progress in Energy.
[2] F. Cuevas,et al. TiFe0.85Mn0.05 alloy produced at industrial level for a hydrogen storage plant , 2022, International Journal of Hydrogen Energy.
[3] M. Hirscher,et al. Magnesium- and intermetallic alloys-based hydrides for energy storage: modelling, synthesis and properties , 2022 .
[4] N. Berti,et al. Substitutional effects in TiFe for hydrogen storage: a comprehensive review , 2021, Materials Advances.
[5] M. Latroche,et al. Hydrogen storage properties of Mn and Cu for Fe substitution in TiFe0.9 intermetallic compound , 2020, Journal of Alloys and Compounds.
[6] M. Latroche,et al. Fundamental hydrogen storage properties of TiFe-alloy with partial substitution of Fe by Ti and Mn , 2020, 2012.00354.
[7] M. Latroche,et al. Fundamental hydrogen storage properties of TiFe-alloy with partial substitution of Fe by Ti and Mn - Dataset related to publication , 2020 .
[8] S. Suwarno,et al. Metal (boro-) hydrides for high energy density storage and relevant emerging technologies , 2020, 2010.04432.
[9] D. Gregory,et al. Metal Hydrides and Related Materials. Energy Carriers for Novel Hydrogen and Electrochemical Storage , 2020, The Journal of Physical Chemistry C.
[10] Z. Pan,et al. An overview on TiFe intermetallic for solid-state hydrogen storage: microstructure, hydrogenation and fabrication processes , 2020, Critical Reviews in Solid State and Materials Sciences.
[11] HyCARE focuses on large-scale, solid-state hydrogen storage , 2019, Fuel Cells Bulletin.
[12] Alan A. Coelho,et al. TOPAS and TOPAS-Academic: an optimization program integrating computer algebra and crystallographic objects written in C++ , 2018 .
[13] Yumiko Nakamura,et al. Hydrogenation of a TiFe-based alloy at high pressures and temperatures , 2015 .
[14] A. Boukraa,et al. Ab-initio structural and electronic properties of the intermetallic compound TiFeH2 , 2015 .
[15] purewal purewal. Hydrogen Storage Materials , 2014 .
[16] C. Leinenbach,et al. Thermodynamic re-assessment of Fe−Ti binary system , 2012 .
[17] Alper Kinaci,et al. Ab initio investigation of FeTi–H system , 2007 .
[18] R. Young,et al. The Rietveld method , 2006 .
[19] H. Yukawa,et al. Electronic structure and hydriding property of titanium compounds with CsCl-type structure , 1999 .
[20] J. M. Hastings,et al. The application of the Rietveld method to a highly strained material with microtwins: TiFeD1.9 , 1989 .
[21] Bao Deyou,et al. NEUTRON DIFFRACTION STUDY OF α-IRON TITANIUM CERIUM HYDRIDE , 1987 .
[22] J. Cantrell,et al. Comparison of structures and electronic properties between TiCoHx and TiFeHx , 1987 .
[23] L. Schlapbach,et al. Orthorhombic structure of γ-TiFeD≈2 , 1987 .
[24] S. Ikeda,et al. Wide-energy-range, high-resolution measurements of neutron pulse shapes of polyethylene moderators , 1985 .
[25] G. Sicking. Isotope effects in metal-hydrogen systems , 1984 .
[26] Louis Schlapbach,et al. Hydrogen in Intermetallic Compounds , 1983 .
[27] J. Lynch,et al. CORRIGENDUM: An x-ray diffraction examination of the FeTi-H2 system , 1982 .
[28] A. Rouault,et al. Structural and activation process studies of FeTi-like hydride compounds☆ , 1980 .
[29] W. Schäfer,et al. Transmission electron microscopy and neutron diffraction studies of Feti-H(D)☆ , 1980 .
[30] J. R. Johnson,et al. Lattice expansion as a measure of surface segregation and the solubility of hydrogen in α-FeTiHx , 1980 .
[31] D. Dew-Hughes. The addition of Mn and Al to the hydriding compound FeTi: Range of homogeneity and lattice parameters , 1980 .
[32] G. Will,et al. Neutron and electron diffraction of the FeTi D(H) - γ - phase , 1980 .
[33] J. M. Hastings,et al. Neutron diffraction study of α-iron titanium deuteride , 1980 .
[34] L. Schlapbach,et al. Structural phase transitions of FeTi-deuterides , 1979 .
[35] J. M. Hastings,et al. Neutron diffraction study of gamma iron titanium deuteride , 1979 .
[36] W. Schäfer,et al. Investigation of TiFe Deuteride Structures by Means of Neutron Powder Diffraction and the Mössbauer Effect , 1979 .
[37] L. Schlapbach,et al. Hydrogen storage in FeTi: Surface segregation and its catalytic effect on hydrogenation and structural studies by means of neutron diffraction , 1979 .
[38] P. Fischer,et al. Deuterium storage in FeTi. Measurement of desorption isotherms and structural studies by means of neutron diffraction , 1978 .
[39] J. M. Hastings,et al. Neutron diffraction study of β iron titanium deuteride , 1978 .
[40] J. Reilly,et al. Formation and properties of iron titanium hydride , 1974 .
[41] V. Somenkov. Structure of hydrides , 1972 .
[42] H. LIPSON,et al. International union of crystallography , 1953 .