自牺牲模板制备的Ni-Fe-P纳米棒作为钠离子电池的高性能阳极。

IF 2.8 4区 材料科学 Q3 MATERIALS SCIENCE, MULTIDISCIPLINARY
Hui Xie, Bo Pang, Fangping Zheng, Xiawei Shen, Chuanqiang Wu
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引用次数: 0

摘要

采用创新的一维钼酸盐模板法成功合成了镍铁普鲁士蓝类似物(PBA)纳米棒,然后采用磷化工艺制备了镍铁磷纳米棒。这些纳米棒由两种金属磷化物ni5p4和FeP精心构建而成。作为钠离子电池(SIBs)的负极材料,自我牺牲模板合成的Ni-Fe-P纳米棒具有显著的电化学性能,在0.1 a g -1电流密度下可获得高达678.8 mAh g -1的可逆比容量,即使在10 a g -1的高倍率下也能保持108.0 mAh g -1。独特的纳米棒形态、组分之间的协同作用以及优化的电子/离子传递途径有助于显著增强Ni-Fe-P纳米棒的电化学性能。本研究证实了使用钼酸盐作为模板合成双金属普鲁士蓝类似物并随后再磷化以创建复杂纳米结构磷化材料的可行性,为开发用于钠离子电池的高性能阳极磷化纳米材料提供了新的途径。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ni-Fe-P nanorods via self-sacrificial template as high-performance anodes for sodium-ion batteries.

Ni-Fe Prussian blue analogue (PBA) nanorods were successfully synthesized using an innovative one-dimensional molybdate template method, followed by the preparation of Ni-Fe-P nanorods through a phosphating process. These nanorods are meticulously constructed from two metal phosphides, Ni5P4and FeP. As an anode material for sodium-ion batteries (SIBs), the self-sacrificial template synthesis of Ni-Fe-P nanorods demonstrates remarkable electrochemical performance, achieving a reversible specific capacity of up to 678.8 mAh g-1at a current density of 0.1 A g-1, and retaining 108.0 mAh g-1even at a high rate of 10 A g-1. The unique nanorod morphology, synergistic interactions among components, and optimized electron/ion transport pathways contribute to the significant enhancement of the electrochemical properties of Ni-Fe-P nanorods. This study confirms the viability of using molybdate as a template for the synthesis of bimetallic PBAs and subsequent rephosphating to create complex nanostructured phosphide materials, offering a novel approach for the development of high-performance anode phosphide nanomaterials for SIBs.

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来源期刊
Nanotechnology
Nanotechnology 工程技术-材料科学:综合
CiteScore
7.10
自引率
5.70%
发文量
820
审稿时长
2.5 months
期刊介绍: The journal aims to publish papers at the forefront of nanoscale science and technology and especially those of an interdisciplinary nature. Here, nanotechnology is taken to include the ability to individually address, control, and modify structures, materials and devices with nanometre precision, and the synthesis of such structures into systems of micro- and macroscopic dimensions such as MEMS based devices. It encompasses the understanding of the fundamental physics, chemistry, biology and technology of nanometre-scale objects and how such objects can be used in the areas of computation, sensors, nanostructured materials and nano-biotechnology.
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