This article reviews original work and important new developments in the field of
deformation behavior of high manganese face-centered cubic γ-Fe alloys. Owing to their …

Advanced high strength steels (AHSSs) are regarded as the most promising materials for
vehicles in the 21st century. AHSSs are complex and sophisticated materials, with …

The strength–ductility trade-off has been a long-standing dilemma in materials science. This
has limited the potential of many structural materials, steels in particular. Here we report a …

Understanding the relationship between the stacking-fault energy (SFE), deformation
mechanisms, and strain-hardening behavior is important for alloying and design of high-Mn …

In Chap. 3, the relationships between microstructure and properties of dual-phase steels
were considered. These relationships serve as the foundation of “microstructure design” for …

Hydrogen and fuels derived from it will serve as the energy carriers of the future. The
associated rapidly growing demand for hydrogen energy-related infrastructure materials has …

A twinning-induced plasticity (TWIP) steel was processed by warm rolling with different
reduction ratios to elevate yield strength while maintaining considerable ductility. To …

Equiatomic FeNiCoCrMn alloy has been reported to exhibit promising strength and ductility
at cryogenic temperature and deformation mediated by nano-twining appeared to be one of …

Medium Mn steels are an emerging class of 3rd generation advanced high-strength steels.
These steels have received significant attention due to their high strengths, large ductilities …

The stacking fault energy (SFE) is often used as a key parameter to predict and describe the
mechanical behaviour of face centered cubic material. The SFE determines the width of the …