用于锂离子电池阳极的氮掺杂石墨烯氧化物、聚吡咯和二氧化硅三方复合材料

Mohammed Al-Bujasim, Metin Gençten, K. B. Dönmez, M. B. Arvas, N. Karatepe, Y. Şahin
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摘要

本研究将掺杂 N 的氧化石墨烯-聚吡咯-二氧化硅(NGO-PPy-SiO2)复合材料用作锂离子电池的可能阳极。本研究采用精密计时器技术合成非政府组织,并制备出两种样品,一种样品的聚吡咯含量较高(N1),另一种样品的聚吡咯含量较低(N2)。N2 在 0.1C 时的最大初始放电容量为 785 mAh/g,高于 N1 的 501 mAh/g。第一个循环的初始库仑效率约为 72%,而 N2 的 ICE 约为 60%。N1 在高速率(10 摄氏度)下循环 100 次后显示出卓越的循环性能,容量保持率为 100%,库仑效率为 100%,并且在循环过程中容量极为稳定。N2 的维持容量≈79%,库仑效率极佳,但循环期间的容量不如 N1 稳定。
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A Tripartite Composite Incorporating Nitrogen-Doped Graphene Oxide, Polypyrrole, and Silica for Lithium-Ion Battery Anodes
In this study, N-doped graphene oxide-polypyrrole-silica (NGO-PPy-SiO2) composite was employed as a possible anode in Li-ion batteries. The chronoamperometric technique was employed to synthesize NGO, and within this study two samples were produced, one characterized by a high polypyrrle content (N1) and the other by a low polypyrrle content (N2). N2 has the maximum initial discharge capacity of 785 mAh/g at 0.1C, which is greater than N1's capacity of 501 mAh/g. The initial coulombic efficiency of the first cycle is around 72%, whereas the ICE of N2 is approximately 60%. N1 demonstrates outstanding cycling performance for 100 cycles at high rate (10 C) with maintain capacity as 100% and coulombic efficiency of 100%, as well as extremely stable capacity during the cycling. N2 has a maintain capacity of ≈ 79% and excellent coulombic efficiency, however the capacity during cycling is not as stable as N1.
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