Microstructural evolution and superelastic properties of ultrafine-grained NiTi-based shape memory alloy via sintering of amorphous ribbon precursor
暂无分享,去创建一个
[1] Yufeng Zheng,et al. Strain states and unique properties in cold-rolled TiNi shape memory alloys , 2022, Acta Materialia.
[2] C. Yang,et al. Shear-accelerated crystallization of glass-forming metallic liquids in high-pressure die casting , 2022, Journal of Materials Science & Technology.
[3] C. Yang,et al. Influence of discharge plasma modification on physical properties and resultant densification mechanism of spherical titanium powder , 2021 .
[4] W. Cai,et al. Stable tensile recovery strain induced by a Ni4Ti3 nanoprecipitate in a Ni50.4Ti49.6 shape memory alloy fabricated via selective laser melting , 2021 .
[5] Lai‐Chang Zhang,et al. Simultaneous enhancement of mechanical and shape memory properties by heat-treatment homogenization of Ti2Ni precipitates in TiNi shape memory alloy fabricated by selective laser melting , 2021, Journal of Materials Science & Technology.
[6] Kangjie Chu,et al. Reducing functional fatigue, transition stress and hysteresis of NiTi micropillars by one-step overstressed plastic deformation , 2021 .
[7] Lai‐Chang Zhang,et al. Overcoming the strength–ductility trade-off by tailoring grain-boundary metastable Si-containing phase in β-type titanium alloy , 2021 .
[8] X. B. Liu,et al. Bimorphic microstructure in Ti-6Al-4V alloy manipulated by spark plasma sintering and in-situ press forging , 2021, Scripta Materialia.
[9] P. Hua,et al. Nanocomposite NiTi shape memory alloy with high strength and fatigue resistance , 2021, Nature Nanotechnology.
[10] W. Kim,et al. Achievement of nearly fully amorphous structure from NiTi alloys via differential speed rolling at 268 K and effect of annealing on superelasticity , 2020 .
[11] P. Šittner,et al. TEM analysis of deformation bands created by tensile deformation of superelastic NiTi wires , 2020 .
[12] Do Hyang Kim,et al. Enhancement in strength and superelastic cyclic durability by addition of Si in Ni–Ti–Cu–Zr alloy , 2020 .
[13] Qingping Sun,et al. Cyclic phase transformation behavior of nanocrystalline NiTi at microscale , 2020 .
[14] W. Kim,et al. Improvement of Thermoplastic Forming Ability of Ti–Zr–Ni–Cu Metallic Glass by Addition of Sn , 2019, Metals and Materials International.
[15] C. Yang,et al. Ultrahigh-performance TiNi shape memory alloy by 4D printing , 2019, Materials Science and Engineering: A.
[16] Woochul Kim,et al. Enhancement of superelastic property in Ti–Zr–Ni–Cu alloy by using glass alloy precursor with high glass forming ability , 2019, Acta Materialia.
[17] Chao Yang,et al. A Review on High‐Strength Titanium Alloys: Microstructure, Strengthening, and Properties , 2019, Advanced Engineering Materials.
[18] M. Na,et al. Correlation between the thermal and superelastic behavior of Ni50-xTi35Zr15Cux shape memory alloys , 2019, Intermetallics.
[19] W. Cai,et al. The crystallization process, microstructure, martensitic transformation and mechanical properties of Ti-Ni-Zr alloy ribbons , 2019, Journal of Alloys and Compounds.
[20] Hong Chen,et al. Improvement of the stability of superelasticity and elastocaloric effect of a Ni-rich Ti-Ni alloy by precipitation and grain refinement , 2019, Scripta Materialia.
[21] D. V. Louzguine-Luzgin,et al. The mechanical cycling behavior of TiNi based crystal/glassy alloy in the superelastic mode , 2018, Journal of Alloys and Compounds.
[22] E. Lavernia,et al. Determination of atomic diffusion coefficient via isochronal spark plasma sintering , 2018, Scripta Materialia.
[23] S. Miyazaki. My Experience with Ti–Ni-Based and Ti-Based Shape Memory Alloys , 2017, Shape Memory and Superelasticity.
[24] Lai‐Chang Zhang,et al. Influence of powder properties on densification mechanism during spark plasma sintering , 2017 .
[25] D. V. Louzguine-Luzgin,et al. Effect of the cooling rate on the mechanical properties of Ti-Ni-Cu-Zr-based crystal/glassy alloys , 2017 .
[26] Lai‐Chang Zhang,et al. Bimodal titanium alloys with ultrafine lamellar eutectic structure fabricated by semi-solid sintering , 2017 .
[27] Dierk Raabe,et al. Ultrastrong steel via minimal lattice misfit and high-density nanoprecipitation , 2017, Nature.
[28] J. Jeon,et al. Atomic scale processes of phase transformations in nanocrystalline NiTi shape-memory alloys , 2017 .
[29] A. A. Tsarkov,et al. High-strength and ductile (Ti–Ni)-(Cu–Zr) crystalline/amorphous composite materials with superelasticity and TRIP effect , 2016 .
[30] Y. H. Li,et al. Non-isothermal and isothermal crystallization kinetics and their effect on microstructure of sintered and crystallized TiNbZrTaSi bulk alloys , 2016 .
[31] Q. Mei,et al. Evolution of microstructure and property of NiTi alloy induced by cold rolling , 2015 .
[32] C. Yang,et al. Densification mechanism of Ti-based metallic glass powders during spark plasma sintering process , 2015 .
[33] Lai‐Chang Zhang,et al. Ultrafine grained Ti-based composites with ultrahigh strength and ductility achieved by equiaxing microstructure , 2015 .
[34] Eckhard Quandt,et al. Ultralow-fatigue shape memory alloy films , 2015, Science.
[35] Mingxiang Chen,et al. Effects of grain size on phase transition behavior of nanocrystalline shape memory alloys , 2014 .
[36] Y. H. Li,et al. Intrinsic relationship between crystallization mechanism of metallic glass powder and microstructure of bulk alloys fabricated by powder consolidation and crystallization of amorphous phase , 2014 .
[37] D. You,et al. Equiaxed grained structure: A structure in titanium alloys with higher compressive mechanical properties , 2013 .
[38] A. Ahadi,et al. Stress hysteresis and temperature dependence of phase transition stress in nanostructured NiTi—Effects of grain size , 2013 .
[39] Y. H. Li,et al. Effect of Fe content on glass-forming ability and crystallization behavior of a (Ti69.7Nb23.7Zr4.9Ta1.7)100−xFex alloy synthesized by mechanical alloying , 2013 .
[40] T. Schildhauer,et al. The biocompatibility and mechanical properties of cylindrical NiTi thin films produced by magnetron sputtering , 2012 .
[41] W. Cai,et al. Martensite structure in Ti–Ni–Hf–Cu quaternary alloy ribbons containing (Ti,Hf)2Ni precipitates , 2010 .
[42] Shyi-Kaan Wu,et al. The evolution of Ti2Ni precipitates in annealed Ti51Ni49 shape memory melt-spun ribbons , 2010 .
[43] K. Lu,et al. Strengthening Materials by Engineering Coherent Internal Boundaries at the Nanoscale , 2009, Science.
[44] I. Karaman,et al. Thermomechanical cyclic response of an ultrafine-grained NiTi shape memory alloy , 2008 .
[45] T. Antretter,et al. Competing accommodation mechanisms of the martensite in nanocrystalline NiTi shape memory alloys , 2008 .
[46] C. Yang,et al. Oxygen-induced amorphization of metallic titanium by ball milling , 2007 .
[47] X. Ren,et al. Physical metallurgy of Ti–Ni-based shape memory alloys , 2005 .
[48] R. Valiev,et al. Amorphization of TiNi induced by high-pressure torsion , 2004 .
[49] L. Chang,et al. Structure evolution in sputtered thin films of Tix(Ni, Cu)1-x I: Diffusive transformations , 1997 .
[50] H. Maier,et al. Plastic deformation of NiTi shape memory alloys , 2013 .
[51] T. Laoui,et al. Spark plasma sintering of metals and metal matrix nanocomposites: a review , 2012 .
[52] Yong Liu,et al. Microstructure and texture development in Ti50Ni25Cu25 melt-spun ribbon , 2007 .