Structural Stability Under Xe-Ion Irradiation of TiZrNbTaV-Based High-Entropy Alloy and Nitride Films

[1]  L. Luo,et al.  Xe-ion-irradiation-induced structural transitions and elemental diffusion in high-entropy alloy and nitride thin-film multilayers , 2022, Materials & Design.

[2]  Chenyang Lu,et al.  The effect of interstitial carbon atoms on defect evolution in high entropy alloys under helium irradiation , 2022, Acta Materialia.

[3]  Chang Li,et al.  Irradiation damage versus lattice distortion in AlNbTiVCrx (x = 0, 0.5, 1) high-entropy alloys from first-principles calculations and irradiation experiments , 2022, Journal of Nuclear Materials.

[4]  W. J. Weber,et al.  Role of electronic energy loss on defect production and interface stability: Comparison between ceramic materials and high-entropy alloys , 2022, Current Opinion in Solid State and Materials Science.

[5]  V. Buranich,et al.  Positron annihilation studies of defect structure of (TiZrHfNbV)N nitride coatings under Xe14+ 200 MeV ion irradiation , 2021 .

[6]  F. Cemin,et al.  Influence of substrate bias and temperature on the crystallization of metallic NbTaTiVZr high-entropy alloy thin films , 2021 .

[7]  D. Primetzhofer,et al.  Influence of Metal Substitution and Ion Energy on Microstructure Evolution of High-Entropy Nitride (TiZrTaMe)N1–x (Me = Hf, Nb, Mo, or Cr) Films , 2021 .

[8]  A. Cabot,et al.  Does the pathway for development of next generation nuclear materials straightly go through high-entropy materials? , 2021 .

[9]  H. Huang,et al.  Helium bubble formation in refractory single-phase concentrated solid solution alloys under MeV He ion irradiation , 2021, Journal of Nuclear Materials.

[10]  P. Eklund,et al.  An upgraded ultra-high vacuum magnetron-sputtering system for high-versatility and software-controlled deposition , 2020, Vacuum.

[11]  M. Nastasi,et al.  Irradiation damage in (Zr0.25Ta0.25Nb0.25Ti0.25)C high-entropy carbide ceramics , 2020 .

[12]  L. Nyholm,et al.  Microstructure and mechanical, electrical, and electrochemical properties of sputter-deposited multicomponent (TiNbZrTa)Nx coatings , 2020 .

[13]  E. Lewin.  Multi-component and high-entropy nitride coatings—A promising field in need of a novel approach , 2020 .

[14]  E. Cl'ement,et al.  “Thermal Spike” model applied to thin targets irradiated with swift heavy ion beams at few MeV/u , 2019, EPJ Web of Conferences.

[15]  Jian Chen,et al.  Effects of deposition temperature on the nanomechanical properties of refractory high entropy TaNbHfZr films , 2019, Journal of Alloys and Compounds.

[16]  Mao Wang,et al.  Interface stability, mechanical and corrosion properties of AlCrMoNbZr/(AlCrMoNbZr)N high-entropy alloy multilayer coatings under helium ion irradiation , 2019, Applied Surface Science.

[17]  D. Canadinc,et al.  Microstructure and tribological properties of TiTaHfNbZr high entropy alloy coatings deposited on Ti 6Al 4V substrates , 2019, Intermetallics.

[18]  U. Jansson,et al.  Accurate high-resolution depth profiling of magnetron sputtered transition metal alloy films containing light species: A multi-method approach , 2018, Thin Solid Films.

[19]  P. Liaw,et al.  Phase transformations of HfNbTaTiZr high-entropy alloy at intermediate temperatures , 2019, Scripta Materialia.

[20]  C. Walker,et al.  Fission gas release from UO2 nuclear fuel: A review , 2019, Journal of Nuclear Materials.

[21]  W. J. Weber,et al.  Atomic-level heterogeneity and defect dynamics in concentrated solid-solution alloys , 2017 .

[22]  Y. Ikeda,et al.  Phonon broadening in high entropy alloys , 2017, npj Computational Materials.

[23]  J. Schneider,et al.  Unprecedented thermal stability of inherently metastable titanium aluminum nitride by point defect engineering , 2017 .

[24]  F. Komarov,et al.  Radiation Resistance of high-entropy nanostructured (Ti, Hf, Zr, V, Nb)N coatings , 2015 .

[25]  G. M. Stocks,et al.  Influence of chemical disorder on energy dissipation and defect evolution in concentrated solid solution alloys , 2015, Nature Communications.

[26]  Mikko Laitinen,et al.  Potku - New analysis software for heavy ion elastic recoil detection analysis , 2014 .

[27]  Steven J. Zinkle,et al.  Accident tolerant fuels for LWRs: A perspective , 2014 .

[28]  R. Stoller,et al.  On the use of SRIM for computing radiation damage exposure , 2013 .

[29]  Y. Long,et al.  Irradiation effects on nanocrystalline materials , 2013, Frontiers of Materials Science.

[30]  W. Weber,et al.  Synergy of nuclear and electronic energy losses in ion-irradiation processes: The case of vitreous silicon dioxide , 2011 .

[31]  W. J. Weber,et al.  Grain Growth and Phase Stability of Nanocrystalline Cubic Zirconia under Ion Irradiation , 2010 .

[32]  W. Foulkes,et al.  The treatment of electronic excitations in atomistic models of radiation damage in metals , 2010 .

[33]  A. Motta,et al.  A thermal spike model of grain growth under irradiation , 2008 .

[34]  Martin B Kalinowski,et al.  Isotopic signature of atmospheric xenon released from light water reactors. , 2006, Journal of environmental radioactivity.

[35]  Martin T. Dove,et al.  How the nature of the chemical bond governs resistance to amorphization by radiation damage , 2005 .

[36]  Kostya Trachenko,et al.  Understanding resistance to amorphization by radiation damage , 2004 .

[37]  Alexander,et al.  Thermal-spike treatment of ion-induced grain growth: Theory and experimental comparison. , 1993, Physical review. B, Condensed matter.

[38]  V. F. Sears.  Neutron scattering lengths and cross sections , 1992 .

[39]  G. Was,et al.  Ion-induced grain growth in multilayer and coevaporated metal alloy thin films , 1990 .

[40]  J. Mayer,et al.  Temperature effect on ion‐irradiation‐induced grain growth in Cu thin films , 1990 .