Nondissipative Martensitic Phase Transformation after Multimillion Superelastic Cycles

Superelastic alloys used for stents, biomedical implants, and solid-state cooling devices rely on their reversible stress-induced martensitic transformations. These applications require the alloy to sustain high deformability over millions of cycles without failure. Here, we report an alloy capable...

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Veröffentlicht in:Physical review letters 2024-02, Vol.132 (6), p.066101, Article 066101
Hauptverfasser: Karami, Mostafa, Zhu, Zeyuan, Chan, Ka Hung, Hua, Peng, Tamura, Nobumichi, Chen, Xian
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container_issue 6
container_start_page 066101
container_title Physical review letters
container_volume 132
creator Karami, Mostafa
Zhu, Zeyuan
Chan, Ka Hung
Hua, Peng
Tamura, Nobumichi
Chen, Xian
description Superelastic alloys used for stents, biomedical implants, and solid-state cooling devices rely on their reversible stress-induced martensitic transformations. These applications require the alloy to sustain high deformability over millions of cycles without failure. Here, we report an alloy capable of enduring 10×10^{7} tensile stress-induced phase transformations while still exhibiting over 2% recoverable elastic strains. After millions of cycles, the alloy is highly reversible with zero stress hysteresis. We show that the major martensite variant is reversible even after multimillions of cycles under tensile loadings with a highly coherent (11[over ¯]0)_{A} interface. This discovery provides new insights into martensitic transformation, and may guide the development of superelastic alloys for multimillion cycling applications.
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source American Physical Society Journals; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals
subjects alloys
continuum mechanics
MATERIALS SCIENCE
microstructure
nanomechanical devices
solid-solid transformations
title Nondissipative Martensitic Phase Transformation after Multimillion Superelastic Cycles
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