Optimization of Preparation Conditions of Modified Oyster Shell Powder/Ce-N-TiO<sub>2</sub> by Response Surface Methodology (RSM) — Oak Academic Publishing
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Optimization of Preparation Conditions of Modified Oyster Shell Powder/Ce-N-TiO<sub>2</sub> by Response Surface Methodology (RSM)
School of Municipal and Mapping Engineer, Hunan City University, Yiyang, China
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School of Municipal and Environmental Engineering, Shenyang Jianzhu University, Shenyang, China
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Hunan Provincial Village Drinking Water Quality Safety Engineering Technology Research Center, Yiyang, China
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Hunan Provincial Village Drinking Water Quality Safety Engineering Technology Research Center, Yiyang, China
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Yiyang City Commodity Quality Supervision and Inspection Institute, Yiyang, China
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Yiyang City Commodity Quality Supervision and Inspection Institute, Yiyang, China
1 School of Municipal and Mapping Engineer, Hunan City University, Yiyang, China
2 School of Municipal and Environmental Engineering, Shenyang Jianzhu University, Shenyang, China
3 Hunan Provincial Village Drinking Water Quality Safety Engineering Technology Research Center, Yiyang, China
4 Hunan Provincial Village Drinking Water Quality Safety Engineering Technology Research Center, Yiyang, China
5 Yiyang City Commodity Quality Supervision and Inspection Institute, Yiyang, China
6 Yiyang City Commodity Quality Supervision and Inspection Institute, Yiyang, China
A new composite photocatalyst of modified oyster shell powder/Ce-N-TiO 2 was prepared by sol-gel method. Based on single factor experiment, Ce doping rate, N doping rate and calcination temperature were taken as input variables. Based on the central composite design (BBD) response surface model, two functional relationship models between three independent variables and glyphosate removal rate were established to evaluate the influence degree of independent variables and interaction on catalyst. The significance of the model and regression coefficient was tested by variance analysis. The analysis of the obtained data showed that the degradation performance of the composite photocatalyst was significantly affected by the calcination temperature and the rate of N doping, while the rate of Ce doping had little effect; at the calcination temperature of 505.440°C, the degradation rate of glyphosate reached the maximum of 82.15% under the preparation conditions of 17.057 mol% N doping and 0.165 mol% Ce doping, respectively.
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