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標題: 多元醇法製備奈米氧化金屬觸媒於低溫下催化VOCs之研究
Supported metal oxide nanocatalysts prepared with polyol process for VOCs oxidation at low temperature
作者: 陳俐穎
Chen, Li-Ing
關鍵字: catalytic incineration;觸媒焚化;polyol process;catalyst;VOCs;toluene;多元醇法;觸媒;VOCS;甲苯
出版社: 環境工程學系所
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揮發性有機污染物質(Volatile Organic Compounds,VOCs)已被認為是主要空氣污染物。其中觸媒焚化法為控制VOCs最重要的技術。
多元醇法(polyol process)操作簡單且金屬大小與形狀容易控制。應用於觸媒製備方面,不但可以獲得大小均一的金屬活性相外,擔持於擔體上的分散性也很好。因此,本研究目的就是利用多元醇法來製備過渡金屬觸媒,期望此種製備法所製備的觸媒,可應用於觸媒焚化來去除VOCs。本實驗選擇活性碳當擔體,銅、鈷、鐵、鎳為金屬活性相,並且以甲苯為目標污染物來進行實驗探討。最後再利用BET、XRPD、ICPMS、FESEM等分析,來觀察微觀的觸媒特性。
實驗結果發現,此種方法所製備的觸媒,金屬分散性好、顆粒大小屬於奈米級的。金屬還原時間越久,顆粒越大,對甲苯轉化率較差。活性碳擔持銅、鈷、鐵、鎳觸媒,其活性大小分別為:銅>鈷>鐵>鎳。對甲苯的去除效率,反應溫度越高、甲苯濃度越低、空間速度越小,則去除效果越佳。不同揮發性有機污染物-BTX的轉化率大小分別為:二甲苯 >甲苯 >苯。由研究結果顯示發現,多元醇法可成功製備奈米觸媒,並且應用於觸媒焚化法來去除揮發性有機污染氣體。

Volatile Organic Compounds (VOCs) are considered as main air pollutants, and catalytic incineration is one of the most important methods for VOCs destruction.
Polyol process is a simple method, which can easily control the particle size and shape, and can be applied for the preparation of catalyst. This method could obtain the synthesis of uniform metal particle size and also led to high dispersion over support. Therefore, the purpose in this study was to prepare transition metal oxide catalyst with the polyol process, and subsequently evaluate the feasibility of catalytic incineration of VOCs. Activated carbon was selected as support material, and copper, cobalt, iron, and nickel were applied as catalytic active phases. Toluene was chosen as the representative VOCs to assess the feasibility of catalytic incineration of aromatics using a supported transition metal catalyst. Catalyst was characterized by means of BET、XRPD、ICPMS、FESEM.
It was found that the polyol process prepared catalysts showed well-dispersed nanoscale metal particle. The increase of reduction time and partical size led the lower toluene conversion. The activity of metal/activated carbon with respect to metal was observed to follow the order : Cu > Co > Fe > Ni. Increasing the reaction temperature, decreasing toluene concentration and space velocity resulted in better conversion of VOCs. The activity of Cu/activated carbon with respect to the VOCs molecule was observed to follow the sequence : xylene > toluene > benzene. The obtained results indicated that the polyol process could successfully manufacture the nanocatalysts which could be applied to remove VOCs by catalytic incineration.
其他識別: U0005-2006200616572100
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