Sentence examples for rolling strain from inspiring English sources

Nanoindentation hardness measurements were used to study the change in hardness with rolling strain.

Dislocation density increases with increasing rolling strain, reaching a maximum at 20% strain, followed by a decrease at larger strain.

Input parameters of "specimen thickness", "SiC content in composite layers", "rolling strain", "maximum achieved stress", and "strain in utmost stress", as well as, "total strain of specimen" were utilized for modeling.

Columnar grained Ni is used as a model material allowing simultaneous non-surface investigations of the evolution of crystallographic orientations and deformation microstructures within individual grains as a function of rolling strain up to ε = 0.7.

The present study investigates the critical role of deformation twinning and Bs-type shear bands in the evolution of deformation texture in a low stacking fault energy Ni 60Co alloy up to very large rolling strain (εt ≈ 4).

The deformation structures evolved very rapidly, forming a nanostructured material, with fine subgrains about 0.2 μm in diameter and a fraction of high-angle boundaries which was already high at a strain of 1.4, but continued to increase with rolling strain.

Al 3Cu 0.05Sn (wt.%) and Al 2.5Mg 1.5Cu (wt.%) alloys were heat-treated to provide a fine distribution of ∼5 nm Guinier Preston (GP) zones and <1 nm Guinier Preston Bagaryatsky (GPB) zones, respectively, and were then subjected to rolling strains up to 100%.

The microstructures developed during deformation to large rolling strains in single and two-phase aluminium alloys with a wide range of grain sizes has been investigated, and the major parameters of the microstructure determined by high resolution electron backscatter diffraction (EBSD).

Secondly, the coarsening of the grains, especially at low rolling strains, during the transition of the UFG structure after HPT processing into the cold-rolled UFG microstructure will be treated, which finally leads to a larger grain size after cold-rolling compared to HPT processing at the same temperature.

This universal evolution is demonstrated for nickel, copper, and aluminum deformed by cold rolling from strains of 0.05 5.5.

The analytical model is used to systematically examine the effect of the inclination angle of the roll profile, the friction factors between the rolls and the beam, the roll radii and the angular speed of the upper and lower rolls on the curvature of the rolled beam, the rolling torque, the effective strain, the effective stress and the variation of density of the rolled product at the exit.