Mechanisms of oxide scale formation on yttrium-alloyed Mo–Si–B containing fine-grained microstructure
暂无分享,去创建一个
[1] B. Yuan,et al. Formation and oxidation resistance of germanium modified silicide coating on Nb based in situ composites , 2014 .
[2] Ping Zhang,et al. Effect of Al content on the structure and oxidation resistance of Y and Al modified silicide coatings prepared on Nb–Ti–Si based alloy , 2013 .
[3] J. Das,et al. Transient stage oxidation behavior of Mo76Si14B10 alloy at 1150 °C , 2013 .
[4] D. Schliephake,et al. Effect of Ti (Macro-) Alloying on the High-Temperature Oxidation Behavior of Ternary Mo–Si–B Alloys at 820–1,300 °C , 2013, Oxidation of Metals.
[5] D. Schliephake,et al. A Study on Effect of Reactive and Rare Earth Element Additions on the Oxidation Behavior of Mo–Si–B System , 2013, Oxidation of Metals.
[6] D. Schliephake,et al. Effect of Yttrium Alloying on Intermediate to High-Temperature Oxidation Behavior of Mo-Si-B Alloys , 2013, Metallurgical and Materials Transactions A.
[7] P. Berthod,et al. On the oxidation mechanism of niobium-base in situ composites , 2012 .
[8] V. Melinte,et al. Photopolymerization experiments and properties of some urethane/urea methacrylates tested in dental composites , 2012 .
[9] R. Ritchie,et al. On the fracture toughness of fine-grained Mo-3Si-1B (wt.%) alloys at ambient to elevated (1300 °C) temperatures , 2012 .
[10] H. Christ,et al. High temperature oxidation of Mo–Si–B alloys: Effect of low and very low oxygen partial pressures , 2010 .
[11] H. Christ,et al. Effect of Zr Addition on the High-Temperature Oxidation Behaviour of Mo–Si–B Alloys , 2010 .
[12] J. Perepezko. The Hotter the Engine, the Better , 2009, Science.
[13] R. Sakidja,et al. Transient oxidation of Mo–Si–B alloys: Effect of the microstructure size scale , 2009 .
[14] A. K. Suri,et al. A study of hot deformation behavior and microstructural characterization of Mo–TZM alloy , 2009 .
[15] S. Roy,et al. Oxidation behaviour of the Mo–Si–B and Mo–Si–B–Al alloys in the temperature range of 700–1300 °C , 2007 .
[16] Richard E. Thompson,et al. Strain Measurements of Silicon Dioxide Microspecimens by Digital Imaging Processing , 2006 .
[17] M. Akinc,et al. Isothermal Oxidation Behavior of Mo‐Si‐B Intermetallics at 1450°C , 2005 .
[18] R. Ritchie,et al. Optimization of Mo-Si-B intermetallic alloys , 2005 .
[19] E. Opila. Variation of the Oxidation Rate of Silicon Carbide with Water‐Vapor Pressure , 2004 .
[20] K. Kumar,et al. High-temperature compression behavior of Mo–Si–B alloys , 2004 .
[21] H. Kestler,et al. Characterization of an industrially processed Mo-based silicide alloy , 2004 .
[22] D. R. Johnson,et al. Oxidation behavior of multiphase Mo–Si–B alloys , 2004 .
[23] M. Kramer,et al. Thermal expansion behavior of intermetallic compounds in the Mo–Si–B system , 2004 .
[24] D. Dimiduk,et al. Mo-Si-B Alloys: Developing a Revolutionary Turbine-Engine Material , 2003 .
[25] N. Nomura,et al. Thermal expansion, strength and oxidation resistance of Mo/Mo5SiB2 in-situ composites at elevated temperatures , 2003 .
[26] D. R. Johnson,et al. Effects of microstructure on the oxidation behavior of multiphase Mo–Si–B alloys , 2003 .
[27] F. Aldinger,et al. Microstructural Changes in Liquid‐Phase‐Sintered Silicon Carbide during Creep in an Oxidizing Environment , 2003 .
[28] D. Dimiduk,et al. Oxidation mechanisms in Mo-reinforced Mo5SiB2(T2)–Mo3Si alloys , 2002 .
[29] D. Dimiduk,et al. Oxidation behavior of αMo–Mo3Si–Mo5SiB2 (T2) three phase system , 2002 .
[30] M. Kramer,et al. A Mo–Si–B intermetallic alloy with a continuous α-Mo matrix , 2002 .
[31] S. Nemat-Nasser,et al. A unified constitutive model for strain-rate and temperature dependent behavior of molybdenum , 2001 .
[32] K. Ito,et al. Physical and mechanical properties of single crystals of the T2 phase in the Mo–Si–B system , 2001 .
[33] D. Petti,et al. Oxidation and Volatilization of TZM Alloy in Air , 2000 .
[34] R. Ritchie,et al. Ambient to high temperature fracture toughness and fatigue-crack propagation behavior in a Mo–12Si–8.5B (at.%) intermetallic , 2000 .
[35] M. Akinc,et al. Oxide scale formation and isothermal oxidation behavior of Mo–Si–B intermetallics at 600–1000°C , 1999 .
[36] Giovanni Carlotti,et al. Elastic properties of silicon dioxide films deposited by chemical vapour deposition from tetraethylorthosilicate , 1997 .
[37] M. Akinc,et al. Oxidation Behavior of Boron‐Modified Mo5Si3 at 800°–1300°C , 1996 .
[38] Y. Gogotsi,et al. Oxidation of yttria- and alumina-containing dense silicon nitride ceramics , 1993 .
[39] F. Riley,et al. Oxygen mobility in silicon dioxide and silicate glasses: a review , 1992 .
[40] C. Torardi,et al. Structure and properties of Y5Mo2O12 and Gd5Mo2O12: Mixed valence oxides with structurally equivalent molybdenum atoms , 1985 .
[41] A. Evans,et al. Oxidation induced stresses and some effects on the behavior of oxide films , 1983 .
[42] E. Irene. Silicon oxidation studies: A revised model for thermal oxidation , 1983 .
[43] E. P. EerNisse,et al. Stress in thermal SiO2 during growth , 1979 .
[44] R. L. Barns,et al. Correlation of the thermal expansion coefficients of rare earth and transition metal oxides and fluorides , 1977 .
[45] A. S. Grove,et al. General Relationship for the Thermal Oxidation of Silicon , 1965 .
[46] A. Revesz. The defect structure of grown silicon dioxide films , 1965 .
[47] F. C. Nix,et al. The Thermal Expansion of Pure Metals. II: Molybdenum, Palladium, Silver, Tantalum, Tungsten, Platinum, and Lead , 1942 .