Crystallographic orientation relationship (OR) in two-phase alloy microstructures determines
their heterophase interfacial structures, and may influence their corresponding deformation …

Dual-phase lamellar microstructures containing alternating regions of plastically soft and
hard phases are known to produce alloys with exceptional combination of strength and …

Creating tailored interfaces between soft and hard materials is a promising route to
simultaneously enhance ductility and strength of multicomponent materials. Here, we study …

The nucleation of lattice dislocations and interface sliding at bimetal interfaces are two
fundamental mechanisms of plasticity that are responsible for the mechanical responses of …

Precise control and in-depth understanding of the interfaces are crucial for the functionality-
oriented material design with desired properties. Herein, via modifying the long-standing …

The nucleation of lattice dislocations (LDs) from bimetal interfaces is critical to the interface-
mediated deformation and strengthening mechanism in nanoscale multilayered metallic …

Misfit dislocations at bimetal interfaces play a decisive role in determining various
deformation behaviors by carrying the shear sliding, serving as a barrier for dislocation …

Multiphase bcc/B 2-based alloy systems have recently received considerable attention
because their microstructures are often remarkably similar to the γ/γ′ microstructure of Ni …

It has recently been shown that under severe plastic deformation processing bi-metal fcc/bcc
composites develop a mechanically stable heterophase interface that joins the {112} …

Molecular statics and dynamics simulations were used to study the mechanisms of sliding
and migration of Σ3 {112} incoherent twin boundaries (ITBs) under applied shear acting in …