本實驗採用AISI 1005鋼作為基礎材料，將其熱浸鍍純鋁，再以陽極處理於其表面催生陽極氧化皮膜。此後於氯化鈉水溶液進行電化學試驗與浸泡試驗，以及高溫環境進行高溫氧化/熱腐蝕試驗，探討經二次表面改質後之鋼材，抗腐蝕性能否獲得提升之效用。
實驗結果顯示，陽極處理後之熱浸鍍鋁鋼材，因外層陽極氧化皮膜會受熱應力影響而剝落，故並不適用於850 oC高溫氧化/熱腐蝕環境。於氯化鈉水溶液進行電化學試驗與浸泡試驗後，以陽極處理時間60分鐘參數之抗蝕性優於低碳鋼和熱浸鍍純鋁鋼材。顯示低碳鋼經陽極處理之二次表面改質處理後，得以改善抗氯化鈉水溶液之腐蝕。

AISI 1005 steel was coated by hot-dipping into a molten pure aluminum, and then underwent an anodizing treatment to form an anodic oxide layer on the coating surface. The corrosion behavior of the modified aluminide steel was analyzed by immersion and electrochemical tests in NaCl aqueous solution and high-temperature oxidation and hot corrosion tests.
The results showed that the anodized aluminide steel can not used in high-temperature oxidation and hot corrosion environment due to the spallation of the anodic alumina oxide layer caused by the thermal stress. On the other hand, the immersion and electrochemical tests in NaCl aqueous solution revealed that corrosion resistance of the aluminide steel after anodizing treatment of 60 minutes is better than the mild steel and aluminide steel, indicating that the aluminide mild steel after anodizing treatment can enhance its corrosion resistance in NaCl aqueous solution.

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