Additive manufacturing-induced anisotropy in damping performance of a dual-phase high-entropy alloy

Li, Yadong; Bai, Yunjian; Liu, Zishang; Jiang, Quanyu; Zhang, Kun; Wei, Bingchen

doi:10.1016/j.jmrt.2024.02.203

Cited by 2 publications

(1 citation statement)

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“…where VEC > 8.6 indicates FCC and VEC < 6.87 indicates BCC. The synthesis of HEAs involves various techniques across solid, liquid, and gas states, each influencing the microstructure and properties of the alloys uniquely [6,[47][48][49][50][51][52][53][54][55]. Solidstate methods [56], such as mechanical alloying and spark plasma sintering, combine materials below their melting points, enhancing microstructure and element diffusion.…”

Section: Formation and Stability Of High-entropy Alloy Structuresmentioning

confidence: 99%

A Modern Approach to HEAs: From Structure to Properties and Potential Applications

Nartita,

Ionita,

Demetrescu

2024

Crystals

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High-entropy alloys (HEAs) are advanced materials characterized by their unique and complex compositions. Characterized by a mixture of five or more elements in roughly equal atomic ratios, these alloys diverge from traditional alloy formulations that typically focus on one or two principal elements. This innovation has paved the way for subsequent studies that have expanded our understanding of HEAs, highlighting the role of high mixing entropy in stabilizing fewer phases than expected by traditional phase prediction methods like Gibbs’s rule. In this review article, we trace the evolution of HEAs, discussing their synthesis, stability, and the influence of crystallographic structures on their properties. Additionally, we highlight the strength–ductility trade-off in HEAs and explore strategies to overcome this challenge. Moreover, we examine the diverse applications of HEAs in extreme conditions and their promise for future advancements in materials science.

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