工業革命至今，化石燃料的大量使用，造成二氧化碳濃度增高，使得全球氣候變遷，因此二氧化碳的捕集及封存技術就顯得相當重要。化學吸收法是目前最廣為使用同時也是最有效率的捕獲技術，本研究以高濃度二乙烯三胺(Diethylenetriamine，DETA)與二次乙亞胺(Piperazine，PZ)的混合水溶液，並將醇胺類總濃度控制在8m，於超重力旋轉床(Rotating packed bed，RPB)中，進行二氧化碳吸收實驗。由於PZ於水中溶解度並不高，若吸收劑中的PZ濃度過高，則會使吸收劑容易結晶析出。於是本研究進行各種吸收劑的結晶測試實驗。結果發現同溫度下，20g與200g樣品的結晶狀況不盡相同。但於二氧化碳吸收實驗的整個過程中，皆是在恆溫50℃下進行，因此吸收劑的結晶與否對於實驗操作並不會有太大的影響。
另外，進行二氧化碳吸收實驗前，本研究先以30wt%的乙醇胺(monoethanolamine，MEA)作為吸收劑，利用氮氣與二氧化碳的個別質量平衡，證明超重力旋轉床整體系統均遵循質量守恆定理。再者，由二氧化碳的吸收實驗結果得知，九種吸收劑的吸收效果差異並不大。最後，本研究以超重力旋轉床的模型，嘗試模擬8mPZ的實驗結果。但整體的模擬效果並不好，其因是8mPZ的基本物理性質在文獻上較不完善。因此需要後續基本物理性質相關數據的量測作業，才可能使模擬結果變的更準確。

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