The microstructural characteristics and mechanical properties of Nb-16Si-22Ti-2Al-2Cr alloys with Zr addition
暂无分享,去创建一个
Jingjie Guo | Binbin Wang | L. Luo | Liang Wang | Zhaobo Li | Baoxian Su | H. Fu | Bin-bin Wang | Yan-Qing Su | Liang Wang
[1] L. Jia,et al. Zr Addition-Induced Transitions of Deformation Mechanism at High Temperatures of Nb-Si-Ti Based Multi-Alloys: Super-Dislocations in γ-Nb5Si3 , 2022, Materials & Design.
[2] Xi-ping Guo,et al. Characterization of micromechanical properties of Al, Y-modified silicide coating on Nb Si based alloy , 2022, Surface and Coatings Technology.
[3] L. Jia,et al. Improvement of oxidation resistance of Nb–Ti–Si based alloys with additions of Al, Cr and B at different temperatures , 2021 .
[4] L. Jia,et al. Balancing the fracture toughness and tensile strength by multiple additions of Zr and Y in Nb–Si based alloys , 2021, Intermetallics.
[5] R. Mitra,et al. Effect of Ti Addition and Microstructural Evolution on Toughening and Strengthening Behavior of as Cast or Annealed Nb–Si–Mo Based Hypoeutectic and Hypereutectic Alloys , 2021, Metallurgical and Materials Transactions A.
[6] R. Ma,et al. Effects of Mo and Zr composite additions on the microstructure, mechanical properties and oxidation resistance of multi-elemental Nb-Si based ultrahigh temperature alloys , 2021, Journal of Alloys and Compounds.
[7] R. Ma,et al. Influence of molybdenum contents on the microstructure, mechanical properties and oxidation behavior of multi-elemental Nb–Si based ultrahigh temperature alloys , 2021 .
[8] Yan-qiang Qiao,et al. Microstructural transition of Nb-Si based alloy during directional solidification upon abruptly decreasing withdrawal rate , 2020 .
[9] R. Sarkar,et al. Influence of Ti and Zr alloying elements on microstructure and micromechanical properties of near-eutectic Nb-18.7Si alloy , 2020 .
[10] Yan-qiang Qiao,et al. Effect of Ti addition on microstructure and crystalline orientations of directionally solidified Nb–Si based alloys , 2020 .
[11] Ye Tang,et al. Role of deformation temperature and strain rate on microstructural evolution of hot compressed Nb–Si based ultrahigh temperature alloy , 2020 .
[12] Xin Lin,et al. Zirconium modified Nb-22Ti-16Si alloys fabricated by laser additive manufacturing: Microstructure and fracture toughness , 2019, Journal of Alloys and Compounds.
[13] Phanikumar Gandham,et al. Effect of Zr addition on the mechanical properties of Nb Si based alloys , 2019, Materials Science and Engineering: A.
[14] J. Shen,et al. Microstructural mechanisms during multidirectional isothermal forging of as-cast Ti-6Al-4V alloy with an initial lamellar microstructure , 2019, Journal of Alloys and Compounds.
[15] Vajinder Singh,et al. Effect of Zr additions on microstructure evolution and phase formation of Nb−Si based ultrahigh temperature alloys , 2018, Intermetallics.
[16] Ye Tang,et al. Flow Behavior and Hot Workability of Nb-15Si-22Ti-5Cr-3Al-2.5Hf Alloy , 2018, Metallurgical and Materials Transactions A.
[17] Qing Liu,et al. Microstructure evolution and static recrystallization during hot rolling and annealing of an equiaxed-structure TC21 titanium alloy , 2018, Journal of Alloys and Compounds.
[18] Ye Tang,et al. Flow softening behavior during hot compression of a Nb-Si based ultrahigh temperature alloy , 2018 .
[19] M. Fu,et al. Crystallographic characteristics of an integrally directionally solidified Nb-Ti-Si based in-situ composite , 2017 .
[20] Yan-qiang Qiao,et al. Study of the effects of Zr addition on the microstructure and properties of Nb-Ti-Si based ultrahigh temperature alloys , 2017 .
[21] R. Mccabe,et al. Monte Carlo modeling of recrystallization processes in α-uranium , 2017 .
[22] Hongmei Zhang,et al. Microstructural characterization of an α+β type Ti-5.5Mo-7.2Al-4.5Zr-2.6Sn-2.1Cr alloy during recrystallization annealing , 2017 .
[23] Linggang Zhu,et al. Toughening of α-Nb5Si3 by Ti , 2016 .
[24] Song Zhang,et al. Alloying effects on the microstructure and properties of Nb–Si based ultrahigh temperature alloys , 2016 .
[25] B. Guo,et al. Effect of withdrawal rates on microstructures and room temperature fracture toughness in a directionally solidified Nb–Ti–Cr–Si based alloy , 2014 .
[26] Shusuo Li,et al. Effect of Zr and Mg on microstructure and fracture toughness of Nb-Si based alloys , 2011 .
[27] Zifu Li,et al. Study of the effect of Ti and Ge in the microstructure of Nb–24Ti–18Si–5Ge in situ composite , 2011 .
[28] Matthew M Nowell,et al. A Review of Strain Analysis Using Electron Backscatter Diffraction , 2011, Microscopy and Microanalysis.
[29] M. Jahazi,et al. Recrystallization during Thermomechanical Processing of IMI834 , 2008 .
[30] Lanzhang Zhou,et al. Microstructures and mechanical properties of cast Nb-Ti-Si-Zr alloys , 2008 .
[31] Yue Zhang,et al. Bonding characteristics and site occupancies of alloying elements in different Nb 5 Si 3 phases from first principles , 2007 .
[32] Z. Li,et al. Microstructural and mechanical characterization of Nb-based in situ composites from Nb-Si-Ti ternary system , 2007 .
[33] S. Miura,et al. Microstructural control of Nb–Si alloy for large Nb grain formation through eutectic and eutectoid reactions , 2007 .
[34] Y. Kimura,et al. Microstructure development of unidirectionally solidified (Nb)/Nb3Si eutectic alloys , 2007 .
[35] Y. Kimura,et al. Fracture toughness and high temperature strength of unidirectionally solidified Nb–Si binary and Nb–Ti–Si ternary alloys , 2006 .
[36] S. Miura,et al. Orientation relationship between Nb and Nb5Si3 (D8l) phases in the eutectoid lamellar microstructure , 2006 .
[37] K. Chan. Alloying effects on the fracture toughness of Nb-based silicides and Laves phases , 2005 .
[38] Y. Mishima,et al. Effects of Zr on the eutectoid decomposition behavior of Nb3Si into (Nb)/Nb5Si3 , 2005 .
[39] P. Petit,et al. Microstructural properties of Nb-Si alloys investigated using EBSD at large and small scale , 2005 .
[40] L. Brewer,et al. Analyses of Eutectoid Phase Transformations in Nb–Silicide In Situ Composites , 2004, Microscopy and Microanalysis.
[41] K. Chan. Relationships of fracture toughness and dislocation mobility in intermetallics , 2003 .
[42] S. Hanada,et al. Tensile properties of a refractory metal base in situ composite consisting of an Nb solid solution and hexagonal Nb5Si3 , 2003 .
[43] S. Hanada,et al. Mechanical Properties of Nb-18Si-5Mo-5Hf-2C In-Situ Composite Prepared by Arc-Casting Method , 2002 .
[44] K. Chan. Alloying effects on fracture mechanisms in Nb-based intermetallic in-situ composites , 2002 .
[45] D. Davidson,et al. Effects of Ti addition on cleavage fracture in Nb-Cr-Ti solid-solution alloys , 1999 .
[46] D. Davidson,et al. Fracture toughness and fatigue crack growth in rapidly quenched Nb-Cr-Ti In situ composites , 1997 .
[47] D. Davidson. Fatigue crack growth through alloyed niobium, Nb-Cr2Nb, and Nb-Nb5Si3in situ composites , 1997 .
[48] B. Bewlay,et al. The Nb-Ti-Si ternary phase diagram: Evaluation of liquid- solid phase equilibria in Nb-and Ti-rich alloys , 1997 .
[49] B. Bewlay,et al. The balance of mechanical and environmental properties of a multielement niobium-niobium silicide-basedIn Situ composite , 1996 .
[50] R. Abbaschian,et al. The Nb-Si (Niobium-Silicon) system , 1993 .
[51] B. Cockeram,et al. Phase relationships in Nb - 18.7 a/o Si in-situ composite , 1991 .
[52] D. Dimiduk,et al. Strength and ductile-phase toughening in the two-phase Nb/Nb5Si3 alloys , 1991 .
[53] M. Ashby,et al. Flow characteristics of highly constrained metal wires , 1989 .
[54] L. Jia,et al. Improvement of fracture toughness of Nb-Si alloy by two-step heat treatment , 2021 .
[55] Duan Yonghua. Stability, Elastic Constants and Thermodynamic Properties of (α, β, γ)-Nb5Si3 Phases , 2015 .
[56] G. Shao,et al. A study of the effects of Hf and Sn additions on the microstructure of Nbss/Nb5Si3 based in situ composites , 2007 .
[57] P. Tsakiropoulos,et al. Study of the role of Al and Cr additions in the microstructure of Nb–Ti–Si in situ composites , 2005 .
[58] D. Dimiduk,et al. Phase relations and transformation kinetics in the high Nb region of the Nb-Si system , 1991 .