Magnesium and its alloys are significant superior metallic materials for structural
components in automobile and aerospace industries due to their excellent …

Most industrial alloys contain a matrix phase and dispersed second-phase particles. Several
thermomechanical processing (TMP) steps are usually needed to produce a final product …

Pure magnesium (Mg) develops a strong basal texture after conventional processing of hot
rolling or extrusion. Consequently, it exhibits anisotropic mechanical properties and is …

Reducing vehicle weight is an important approach for increasing fuel economy, addressing
regulatory requirements, and meeting consumer needs. Magnesium alloys are among the …

Although magnesium alloys, as the lightest structural alloys, offer significant potential for
automotive applications, their applications remain limited due to their poor formability at …

Due to lattice reorientation, grain segmentation, induced recrystallization, twins play a very
important role in regulating texture, refining grains, improving mechanical properties and …

Developing ultra-high strength in rare-earth-free Mg alloys using conventional extrusion
process is a great challenge. What is even more difficult is to achieve such a goal at a lower …

Magnesium alloys have received an increasing interest in the past 12 years for potential
applications in the automotive, aircraft, aerospace, and electronic industries. Many of these …

The formability and mechanical properties of many engineering alloys are intimately related
to the formation and growth of twins. Understanding the structure and chemistry of twin …

The addition of nanoscale additions to magnesium (Mg) based alloys can boost mechanical
characteristics without noticeably decreasing ductility. Since Mg is the lightest structural …