Shape memory alloys (SMA) are functional materials known for their shape memory and
pseudoelastic properties, which originated from a thermoelastic phase transition between …

Shape memory alloys recover their original shape after deformation, making them useful for
a variety of specialized applications. Superelastic behavior begins at the critical stress …

Shape memory alloys exploit the latent heat yielded by stress-induced martensitic
transformation to achieve elastocaloric effect, being suited for solid-state cooling technology …

Metamagnetic shape memory alloy (MMSMA), in which the martensitic transformation
temperature can be controlled by a magnetic field, is a new type of magnetic shape memory …

This paper reports a study on non-linear temperature dependences of the critical
pseudoelastic stress and stress hysteresis for stress-induced martensitic transformation …

In this paper, the progress on shape memory alloys (SMAs) for the past 10 years was
reviewed and research trends in the field were briefly introduced. Especially, basic …

As a generic feature in the application of shape memory alloys (SMAs), superelasticity is
largely affected by microstructural variation and functional fatigues under cyclic loading …

Large thermal hysteresis (T hys) is favorable in shape memory alloys (SMAs) because it
renders wide service and storage temperature range of the SMA-made parts. In this letter …

Shape-memory alloys suitable for low-temperature environments are crucially lacking
despite their potential applications for aerospace engineering, superconducting …

Vapor compression technologies widely used for refrigeration, heating, and air-conditioning
have consumed a large fraction of global energy. Efforts have been made to improve the …