High strength and superconductivity in nanostructured niobium-titanium alloy by high-pressure torsion and annealing: Significance of elemental decomposition and supersaturation

Chemistry

• Annealing 100%
• Reaction Temperature 75%
• Pressure 75%
• Decomposition 75%
• Chemical Element 75%
• Strain 75%
• Torsion 75%
• Strength 50%
• Hardness 50%
• Superconductivity 50%
• Niobium 50%
• Nanoclusters 50%
• Supersaturation 50%
• Shear Strain 50%
• Phase Composition 25%
• Chemical Kinetics Characteristics 25%
• Alloy 25%
• Ambient Reaction Temperature 25%
• Segregation 25%
• Diffusion 25%
• Mixture 25%
• Equilibrium 25%
• Tensile Strength 25%
• Body-Centered Cubic Crystal System 25%
• Plastic Deformation 25%
• Bending Strength 25%
• Grain Boundary 25%

Biochemistry, Genetics and Molecular Biology

• Decomposition 75%
• Strength 75%
• Pressure 75%
• Temperature 50%
• Hardness 50%
• Superconductivity 50%
• Kinetics 25%
• Facilitated Diffusion 25%
• Powder 25%
• Room Temperature 25%
• Grain Boundary 25%
• Magnet 25%
• Transition Temperature 25%

Material Science

• Hardness 50%
• Supersaturation 50%
• Shear Strain 50%
• Powder 25%
• Mixture 25%
• Hardening 25%
• Lamellar Structure 25%
• Superconducting Magnet 25%
• Grain Boundary 25%
• Titanium Alloys 25%