隨著全球快速工業化的發展，天然資然快速消耗。所以發展替代能源是不
可避免的趨勢。而燃料電池具有低汙染且高能量轉換效率的優點，更是被廣
泛研究。而在直接甲醇燃料電池的發展中，陽極氣泡堆積的問題一直影響著
反應效能。而在微米等級的氣泡動力學行為已有許多相關的研究了，然而在
奈米等級的氣泡成長與反應的行為卻是鮮少人在探討。故本篇想探討並且了
解在奈米尺度下氣泡的動力學行為，期待在深入了解之後，能提出有效解決
陽極氣泡堆積的方法。
實驗初期先用雙氧水模擬氣泡生成，並加入AFM的測量其生長的高度、速度
與力曲線相關分析。之後實驗將結合AFM與電化學系統，實際觀察甲醇反應產
生的奈米級CO 2 氣泡的相關動力學行為。

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