銅銦銻為直接能隙的三元半導體材料，由於能隙約1.2eV，缺陷複合物有良好的導電性且在近紅外光區域有高敏感性。銅銦碲也有潛力用於鋰離子電池應用，其理論電容為515mAh/g，高於石墨的372mAh/g，可做為石墨的取代物。
本篇研究使用有機熱溶劑注射法(hot-injection)合成銅銦碲奈米顆粒與銅銦銻奈米線，其奈米線反應機制為溶液液體生長法(Solution-Liquid-Solid, SLS)，利用低熔點的鉍作為觸媒，當溶液到達適當溫度時，再將反應物注入反應器內形成奈米化合物，藉由改變反應物、反應溫度、反應時間、界面活性劑種類來合成奈米化合物，用SEM、HR-TEM、FFT、XRD、EDS-Mapping等儀器來觀察其奈米化合物形狀與分析其結構。利用鍛燒後銅銦銻奈米線作為鋰離子電池陽極材料，進行充放電循環測試，得到的電容量經過219個循環後仍有819mAh/g，並以不同的電流密度進行充放電測試，鍛燒處理後的銅銦碲奈米線在鋰離子電池應用上能有顯著的提升，證實銅銦碲奈米材料可做為鋰離子電池電極。

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