本實驗結論如下：
(1) 利用電化學處理法，能夠製備出管長為 6.08 至 33 μm 之 TiO2 nanotube，
以助於元件效率。
(2) 將 TiO2 nanotube 浸泡於 N719 染料 24 小時，結果發現管長越長，染料吸 附效果越佳。
(3) 封裝製程所使用的對電極玻璃，本實驗發現 FTO 與 ITO 並無影響效率轉 換，在成本考量上值得選購，因本研究無將 FTO 與 ITO 進行熱處理，
使得導電玻璃電阻值不會受到影響。
(4) 若光源如本實驗從對電極方向照入，則對極電極上之催化層越薄越好，
降低元件效率受到影響。
(5) 本實驗結果發現，目前使用管長 30 μm 進行封裝檢測，則得 Voc為 0.71 V，Jsc為 11.30 mA/cm2，FF 為 0.48，效率轉換可達 3.92%。
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