Texture evolution and dynamic mechanical behavior of cast AZ magnesium alloys under high strain rate compressive loading

Grain size dependence of dynamic mechanical behavior of AZ31B magnesium alloy sheet under compressive shock loading

“…This variation in the hardening rate is mainly attributed to the activation or suppression of deformation mechanisms [46,53,54]. More details about the flow curves, hardening diagrams and hardening steps can be found in [55]. Moreover, with increasing the grain size, the maximum hardening rate increases and the highest hardening rates are observed in samples with 37 μm grain size.…”

Hot deformation and processing map of an as-extruded Mg–Zn–Mn–Y alloy containing I and W phases

“…Therefore, a lower efficiency of power dissipation corresponds to a lower temperature region or higher strain rate region, whereas a higher efficiency of power dissipation corresponds to a higher temperature region or a lower strain rate region. At lower temperatures, the deformation mode is mostly twinning and basal slip in magnesium alloys due to its limited number of available slip systems [17,[68][69][70]. Other slip systems become active as the deformation temperature increases [41,42].…”

Thermographic analysis of the fatigue heating process for AZ31B magnesium alloy

“…Magnesium alloys are under consideration for use in applications requiring a high specific strength and low density structural material [11]. For applications in aerospace industry and automobile manufacturing, magnesium alloys often undergo fatigue loading.…”