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Janice Moya
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Proceedings Papers
SMST2024, SMST 2024: Extended Abstracts from the International Conference on Shape Memory and Superelastic Technologies, 33-34, May 6–10, 2024,
Abstract
View Papertitled, 3D In-Situ Characterization of Individual Grains in CuAlNi Shape Memory Alloys during Cyclic Loading Using X-Ray Topotomography
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for content titled, 3D In-Situ Characterization of Individual Grains in CuAlNi Shape Memory Alloys during Cyclic Loading Using X-Ray Topotomography
The crystallographic theory of martensite (CTM) forms the foundation of our understanding of stress-induced reversible martensitic phase transformation cycling, relying on assumptions that exclude precipitates, grain boundaries, plasticity, and strained lattices. An ongoing challenge persists in adapting our understanding of CTM-based micromechanical theory (e.g., habit plane variant, or HPV, prediction and the origins of hysteresis and, subsequently, functional fatigue) to real, engineering-grade SMAs. Due to the complexity, elucidating the micromechanical phenomena requires novel high-resolution 3D in-situ characterization techniques.