High performance damping behavior of Ni-Fe-Ga alloys within the martensite/strain-glass phase boundary
Source abstract
Abstract
Abstract Strain glass alloys are promising candidates of high performance damping materials for their broad damping peaks. To realize the practical applications, the large damping capacity and broad ambient temperature range are highly desirable. However, the high damping behavior covering ambient temperature has not yet been achieved in strain glass systems, and how to obtain a maximum damping capacity in the same strain glass system remains unclear. Here, we reported the broad ambient temperature damping of Ni73-xFexGa27 (x=23.5~24.5) strain glass alloys. The damping capacity of Ni73-xFexGa27 strain glass alloys increases as the compositions move towards the martensite/strain-glass phase boundary, and the maximum damping value (~0.12) is achieved in Ni49.5Fe23.5Ga27 strain glass alloy within the phase boundary. The boundaries of martensitic nano-domain are very mobile in phase boundary region, which leads to broad and high damping peak around ambient temperature. Our results provide an effective way to design high performance damping materials.
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Research context
OpenAlex topics: Shape Memory Alloy Transformations · Magnetic Properties and Applications · High Entropy Alloys Studies
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