增强 p 型 Mg3Sb2 基材料热电性能的电风诱导纹理加工

IF 7.2 2区 材料科学 Q1 MATERIALS SCIENCE, MULTIDISCIPLINARY Applied Materials Today Pub Date : 2024-08-12 DOI:10.1016/j.apmt.2024.102391
Qiang Zhang, Yingpeng Gao, Hongyao Xie, Peifeng Ren, Zhaohui Shan, Jianfeng Fan
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引用次数: 0

摘要

高强度电脉冲处理(EPT)可在材料中诱导电风效应,从而促进多晶样品中晶粒的重排和重新定向。本研究首次利用 EPT 技术在 MgAgSb 块状化合物中构建纹理,并产生了一个高导电通道,以促进电荷载流子的传输。这使得 EPT 样品(4#20)在室温下的载流子迁移率比原始样品提高了 53%。此外,EPT 并不影响材料的载流子浓度,因此 EPT 样品的导电率和塞贝克系数都有显著提高。因此,在 723 K 时,EPT 样品(4#20)的导电率比原始样品提高了 36%。这项研究表明,EPT 技术是构建基于 MgSb 的纹理材料的一种有效方法,为其他潜在材料利用与性能相关的纹理实现高热电性能提供了宝贵的途径。
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Electric wind induced texturing for enhanced thermoelectric performance of p-type Mg3Sb2-based materials
High-intensity electric pulse treatment (EPT) can induce electric wind effect in materials, which facilitates the grain rearrangement and reorientation in polycrystalline samples. For the first time, this study employed the EPT technique to construct texture in MgAgSb bulk compounds, and a highly conductive channel was produced to promote the charge carrier transport. This leads to a 53 % improvement in carrier mobility of the EPT sample (4#20) over the pristine one at room temperature. Additionally, EPT does not affect the carrier concentration of the material, making the EPT samples possess significantly improved electrical conductivities and untouched Seebeck coefficients. Consequently, a 36 % improvement in value is achieved for the EPT sample (4#20) at 723 K, compared to the pristine one. This work demonstrates that EPT technique is an effective approach for constructing textured MgSb-based materials, offering a valuable avenue for high thermoelectric performance in other potential materials manipulating properties-related texture.
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来源期刊
Applied Materials Today
Applied Materials Today Materials Science-General Materials Science
CiteScore
14.90
自引率
3.60%
发文量
393
审稿时长
26 days
期刊介绍: Journal Name: Applied Materials Today Focus: Multi-disciplinary, rapid-publication journal Focused on cutting-edge applications of novel materials Overview: New materials discoveries have led to exciting fundamental breakthroughs. Materials research is now moving towards the translation of these scientific properties and principles.
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