傳統上將材料分成三類,金屬、非金屬、高分子,三者特性及應用分明也各有優缺點,但是若能將不同類別的材料組合起來,勢必將材料的世界添加新的色彩和選擇,這即是複合材料的願景。
　　一般來說提到氧化鋁的特性被聯想到就是特性穩定、堅硬耐磨耗、熔點高、耐高溫等;而高分子則是柔軟度高、可塑性高等,因此構想把氧化鋁和高分子結合在一起,開發新功能性材料。
　　本研究藉由溶膠凝膠法,控制矽烷耦合劑分子層級的水解與縮合反應,披覆在微奈米級氧化鋁粉末表面改質成具有殼核結構,且保有氧化鋁粉末與矽烷高分子的特性,未來可添加在纖維材料的抽絲加工過程,可確保高分子和無機素材的界面黏著性。使用FT-IR(傅立葉紅外線光譜)、S-NMR(固態核磁共振光譜)來觀察氧化鋁外圍的披覆物質鑑定與鍵結模式,並由TEM(穿透式電子顯微鏡)證實有機/無機界面組成具殼核結構之矽烷耦合劑披覆微奈米級氧化鋁。

　In traditional, the materials are divided into metal, nonmetal and polymer, the three characteristic each has advantages and disadvantages, if we can combine the different classes of materials, the world of the material will have new colors and different choice, it is the perspective on the composite region. In general, the characteristic of alumina is hard, hard-wearing, high melting point and very stable. The polymer is high plastic, so we can mix with alumina and polymer to develop the new characteristic material.
　The Research uses sol-gel to control hydrolsis and condensation reactions of the silane coupling agent. The way can make nano-alumina powder coated with self assembled silane layers. The nano-alumina powder coated with silane layers can be a filler of polymers. The research uses FTIR(Fourier Transform Infrared Spectroscopy) and SNMR(Solid Nuclear Magnetic Resonance Spectroscopy) to determine powder surface that had be coverd with silane layers. Finally, using TEM(Transmission Electron Microscope) proves the core-shell structuce nano-alumina powder coated with the silane layers.

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