The optimal design of shape memory alloys (SMAs) with specific properties is crucial for the
innovative application in advanced technologies. Herein, inspired by the recently proposed …

Engineering the martensitic transformation (MT) with exceptional and controllable properties
is essential for the innovative application of shape memory alloys (SMAs) in advanced …

The elastic strain limit of most metals are less than 0.2% except for whiskers or freestanding
nanowires whose elastic strain limit could reach 4–7%. Ferroelastic metals such as shape …

The rapid development of aerospace, automotive, and energy exploration industries
urgently requires high-temperature shape memory alloys (HTSMAs) which are utilized as …

We show in this paper how strain engineering alters the fundamental characteristic of a
martensitic transformation (MT) and gives it a new set of properties including large quasi …

Materials that undergo a reversible change of crystal structure through martensitic
transformation (MT) possess unusual functionalities including shape memory …

Nanosized materials are known to have the ability to withstand ultralarge elastic strains (4–
10%) and to have ultrahigh strengths approaching their theoretical limits. However, it is a …

We present a scale-bridging approach for modeling the integral elastic response of
polycrystalline composite that is based on a multi-disciplinary combination of (i) parameter …

We show that nanoscale epitaxial superlattices (SLs) can be used to engineer the energy
landscape that governs the martensitic transformation in shape memory alloys and tune their …

We present a novel multiphysics and multimaterial computational design framework for
shape-memory alloy-based smart structures. The proposed framework uses topology …