Sentence examples for solution strengthening of from inspiring English sources
Gypen and Deruyttere approach was used to estimate solid solution strengthening of the Fe40Mn28Ni32 − xCrx alloys.
The coating hardness increased after heat treatment, which stemmed from precipitation of secondary carbides and solid solution strengthening of the binder by tungsten.
The coating microhardness increased significantly after annealing, which was due to the solid solution strengthening of BCC matrix and formation of β-TixW1 β-TixW1cipitation.
As a result of the competition between the solid solution strengthening of Mo and the embrittlement of the intermetallic compounds, the fracture toughness of the alloys firstly increases and then decreases with increasing Mo content.
The dislocation strengthening and the solid solution strengthening of the dissolved alloying carbides are the main mechanisms of increasing the strength by decreasing the tempering temperature and increasing the quenching temperature, respectively.
Due to the solution strengthening of the nitrogen super-saturation γN-phase formed on the surfaces of the samples, the surface microhardness and the wear resistance of the nitrided 316 L SS was significantly improved.
The solid-solution strengthening of the BCC matrix and the σ phase hardening were the two main factors that strengthened the alloys.
Theoretical analysis indicates that the solid-solution strengthening of Mo is the dominant high-temperature strengthening mechanism in fire-resistant steel, but this strengthening effect becomes relatively weak when Mo content is more than or equal to 0.5 wt.%.
The hardness of the coating is found to increase with the nominal W content, and this is predicted to arise from solid-solution strengthening of the platelets rather than an increase in the area of dislocation-pinning grain boundaries.
Combined solid-solution strengthening of Mn, Mo, C and Y, and the microstructural refining effect of C and Y, mainly contributed to the strength at room temperature as well as at high temperature up to 800°C, in addition to strengthening due to Y2O3 and carbide precipitation.
The present results are also examined in conjunction with a comprehensive survey of available results on the strain-rate sensitivity of tensile yield strength and ductility in microcrystalline, sub-microcrystalline and nanocrystalline metals and alloys, and on the solid-solution strengthening of aluminum alloys.
