Application of ion modification for alteration of anode materials based on ZnO/CoZn nanostructures

Q2 Engineering Optical Materials: X Pub Date : 2024-10-16 DOI:10.1016/j.omx.2024.100374
Ainur M. Zikirina , Artem L. Kozlovskiy , Inesh E. Kenzhina
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Abstract

During the conducted studies, it was established that the use of ion modification by irradiation with O+ and Ar+ ions makes it possible to elevate the degradation resistance of anode materials due to the effect of vacancy defect creation, the density of which varies with the irradiation fluence. At the same time, the analysis of changes in the band gap and the optical density value, expressing changes in structural distortions, revealed that ion irradiation leads to a rise in the stability of the preservation of electronic properties during long-term resource tests, which are inextricably linked with the degradation of ZnO/CoZn nanostructures due to oxidation processes as a result of lithiation. During assessment of changes in the parameters of the band gap and optical density of the samples after resource tests, it was found that the observed growth in these indicators is due to oxidation processes and partial amorphization due to the formation of oxide inclusions in the structure of nanowires, the presence of which is due to the interaction of nanostructures with the electrolyte over a long period of time during charging/discharging, which results in near-surface layer degradation due to the introduction of oxygen, and in the case of a long service life, to the formation of oxide inclusions that elevate the density of defects and vacancies in the structure. According to tests of synthesized ZnO/CoZn nanostructures as anode materials, it was found that the use of O+ and Ar+ ions not only leads to a growth in the degradation resistance of capacitive characteristics during long-term tests, but also to the stability maintenance of indicators with a reversible decrease in the charging rate at charging rate variation.
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应用离子改性技术改变基于 ZnO/CoZn 纳米结构的阳极材料
在研究过程中发现,利用 O+ 和 Ar+ 离子辐照进行离子改性可以提高阳极材料的抗降解性,这是由于空位缺陷产生的影响,空位缺陷的密度随辐照能量的变化而变化。与此同时,通过分析表示结构畸变的带隙和光密度值的变化,发现离子辐照导致在长期资源试验中保持电子特性的稳定性提高,这与氧化过程导致的氧化锌/氧化钴纳米结构的降解密不可分。在对资源测试后样品带隙和光密度参数的变化进行评估时发现,观察到的这些指标的增长是由于氧化过程和纳米线结构中氧化物夹杂物的形成所导致的部分非晶化、氧化物的存在是由于纳米结构在充电/放电过程中与电解液长期相互作用,氧气的进入导致近表面层退化,在使用寿命较长的情况下,氧化物夹杂物的形成提高了结构中缺陷和空位的密度。根据对合成的 ZnO/CoZn 纳米结构作为阳极材料进行的测试发现,在长期测试中,使用 O+ 和 Ar+ 离子不仅会导致电容特性的抗降解能力增强,而且还能保持指标的稳定性,在充电速率变化时充电速率会可逆地降低。
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来源期刊
Optical Materials: X
Optical Materials: X Engineering-Electrical and Electronic Engineering
CiteScore
3.30
自引率
0.00%
发文量
73
审稿时长
91 days
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