The unfavorable rate capacities and cycling property are insurmountable problems for application of pure MoS₂ anode in Li-ion batteries. In this regard, a brief methodology used in the synthesis of AgNWs@MoS₂ is discussed. Emphasis is placed on the construction of a nanocomposite anode by which the cycling behavior and rate capability of MoS₂ can be improved. As the 1D skeletons of Ag nanowires constitute fast conductive pathways and prevent volume expansion of pure MoS₂ as charge/discharge process, enhancing the Li⁺ diffusion coefficient in electrode. The experimental results reveal interesting examples of AgNWs@MoS₂ anode of admirable rate property and promising long-cycling appearance (310 mAh g⁻¹ at 1 A g⁻¹ after 1000 cycles). The scope of this research lies in providing a type of excellent anode material in Li-ion batteries.

不利的倍率容量和循环性能是纯MoS ₂负极在锂离子电池中应用不可克服的问题。在这方面，讨论了用于合成 AgNWs@MoS ₂的简要方法。重点放在纳米复合阳极的构建上，通过该阳极可以改善MoS _{2的循环行为和倍率性能。}由于Ag纳米线的一维骨架构成了快速导电通路，并防止纯MoS ₂在充放电过程中发生体积膨胀，从而提高了电极中的Li ⁺扩散系数。实验结果揭示了 AgNWs@MoS _{2的有趣例子}阳极具有令人赞叹的倍率特性和有希望的长循环外观（1000 次循环后在 1 A g ^{-1时为 310 mAh g -1 ）。}这项研究的范围在于为锂离子电池提供一种优良的负极材料。