Synthesis of Al2O3 with tunable pore size for efficient formaldehyde oxidation degradation performance

Alumina aerogel is of great interest for many potential applications because of high surface areas, intrinsic acid, and excellent mechanical properties. Different particle and pore size distribution can show superior performance in some applications, and therefore, the realization of the regulation...

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Veröffentlicht in:Journal of materials science 2018-03, Vol.53 (5), p.3375-3387
Hauptverfasser: Mei, Jing, Shao, Yamin, Lu, Shaoxiang, Ma, Yusha, Ren, Lili
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creator Mei, Jing
Shao, Yamin
Lu, Shaoxiang
Ma, Yusha
Ren, Lili
description Alumina aerogel is of great interest for many potential applications because of high surface areas, intrinsic acid, and excellent mechanical properties. Different particle and pore size distribution can show superior performance in some applications, and therefore, the realization of the regulation of alumina particle and pore size has important industrialization significance. Herein, we demonstrate a simple method to prepare alumina aerogels with high surface areas and tunable pore size using sol–gel method with adding polyethylene glycol (PEG). And PEG is used as not only complexing agent to change the size of alumina aerogel particles and enhance the three-dimensional interconnected network structure, but also phase separation agent to promote the formation of macroporous. By changing the molecular mass of PEG and the amount of PEG of the same molecular mass, tunable pore size can be easily achieved. Owing to their high surface area and the three-dimensional network structure for promoting the transport of material into mesoporous where reactions take place, Al 2 O 3 with centered pore size distribution was demonstrated to have excellent catalytic performance. In particular, the prepared Al 2 O 3 adding 0.03 molar ratio of PEG-8000 exhibits the excellent catalytic activity for formaldehyde.
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Different particle and pore size distribution can show superior performance in some applications, and therefore, the realization of the regulation of alumina particle and pore size has important industrialization significance. Herein, we demonstrate a simple method to prepare alumina aerogels with high surface areas and tunable pore size using sol–gel method with adding polyethylene glycol (PEG). And PEG is used as not only complexing agent to change the size of alumina aerogel particles and enhance the three-dimensional interconnected network structure, but also phase separation agent to promote the formation of macroporous. By changing the molecular mass of PEG and the amount of PEG of the same molecular mass, tunable pore size can be easily achieved. Owing to their high surface area and the three-dimensional network structure for promoting the transport of material into mesoporous where reactions take place, Al 2 O 3 with centered pore size distribution was demonstrated to have excellent catalytic performance. 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subjects Aerogels
Aluminum oxide
Catalysis
Catalytic activity
Characterization and Evaluation of Materials
Chemical Routes to Materials
Chemistry and Materials Science
Classical Mechanics
Crystallography and Scattering Methods
Formaldehyde
Materials Science
Mechanical properties
Oxidation
Particle size distribution
Performance degradation
Phase separation
Polyethylene glycol
Polymer Sciences
Pore size
Pore size distribution
Porosity
Sol-gel processes
Solid Mechanics
title Synthesis of Al2O3 with tunable pore size for efficient formaldehyde oxidation degradation performance
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