請用此 Handle URI 來引用此文件: http://hdl.handle.net/11455/5684
標題: 四乙烯戊胺改質矽材吸附二氧化碳之研究
Adsorption of CO2 via Tetraethylenepentamine modified silica material
作者: 郭室均
Kuo, Shin-Chun
關鍵字: CO2 capture
Mesoporous Silica Particles
Surface modification
出版社: 環境工程學系所
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摘要: 本研究以中孔洞矽材(Mesoporous Spherical-Silica Particles,簡稱 MSPs)及Si/Al為60之Y型沸石(簡稱Y60)為吸附材,模擬煙道除硫系統(flue gas desulfurization, FGD)尾氣中二氧化碳(CO2)進行吸附效率測試及評估實場應用之可行性。於研究中利用多胺基藥劑-四乙烯戊胺(Tetraethylenepentamine, TEPA) 進行吸附劑表面化學改質,以提升CO2吸附容量 。研究結果顯示,MSPs及Y60經TEPA改質後,在60℃環境下,MSPs吸附量由7.03提昇至87.05 mg/g經,Y60吸附量由15.28增加至112.74mg/g。由熱力學得知,MSP(TEPA)與Y60(TEPA)在30-60℃間吸附熱分別為57.61及36.74 kJ/mole,放熱反應以化學性吸附為主。在循環吸附方面,熱脫附試程顯示,MSP(TEPA)及Y60(TEPA),經過20次反覆吸脫附後,對CO2的吸附指標(adsorption index)皆能維持90%,吸附量仍相當高。濕度影響下,MSP(TEPA)、 Y60(TEPA)隨著溼度增加其吸附量皆有提升趨勢,溼度0%時吸附量為87.05 mg/g、112.74mg/g,當溼度增加至7%時,吸附量提升至206.34 mg/g、262.49 mg/g。MSP、Y60經過TEPA表面處理後,表面含胺官能增加,對CO2吸附效果較傳統吸附劑有較高的吸附容量,具有非常高之開發潛力。
This project employed Mesoporous Silica Particles, MSPs and Y-type zeolite as adsorbents for CO2 capture in post-flue gas desulfurization. The results showed that the optimal adsorbents were Tetraethylenepentamine, TEPA modified MSPs and zeolite with a Si/Al ratio of 60 (abbreviated as Y60). Hence, the experimental maximum adsorption capacity (qe) of MSPs and MSP(TEPA) were 7.03 and 87.05 mg/g, respectively, at 20oC with 15% of CO2 inlet. Under the same inlet concentration at 60oC, the qe of Y60 and Y60(TEPA) were 15.28and 112.74 mg/g, respectively. The qe of MSP(TEPA) and Y60(TEPA) was greater than many types of modified silica adsorbents documented in the literature. These results are favorable in their use as an adsorbent for CO2 capture. The thermodynamic analysis gave 57.61 and 36.74 kJ/mole isosteric heat of adsorption, which is typical for chemcial adsorption. From an energy efficient standpoint, the cyclic CO2 adsorption on MSP(TEPA) and Y60(TEPA) showed that the adsorbed CO2 could be effectively desorbed via thermal treatment. The qe of MSP(TEPA) and Y60(TEPA) were increased with increasing of relative humidity, range from 0-7%,from 87.05、112.74 mg/g to 206.34、262.49 mg/g,respectively. It has been tested for 20 cycles of adsorption and regeneration with little reduction incapacity, suggesting that the MSP(TEPA) and Y60(TEPA) can be used in the prolonged adsorption/desorption operation. This project provides useful information with respect to potential adsorbents and the best operating conditions as design criteria for a full-scale CO2 adsorber in the field.
URI: http://hdl.handle.net/11455/5684
其他識別: U0005-1607200911423600
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