Bi-base-mesoporous silica composite material and preparing method and application thereof
A technology of mesoporous silica and composite materials, applied in the fields of photocatalytic material technology and environmental sanitation analysis, can solve the problems of complex synthesis, high price and high detection cost of multi-layer carbon nanotubes, and achieve excellent photocatalytic activity and electrochemical performance. The effect of improving photocatalytic activity and easy control of conditions
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Embodiment 1
[0043] 1). Add 2mol Bi(NO 3 ) 3 ·5H 2 Dissolve O in ethylene glycol solution, heat and stir at 30°C to dissolve, add 0.2mol KIT-6, continue heating and stirring for 0.5 hour, add 20mol NaCl solid, stir and mix well.
[0044] 2). Transfer the suspension obtained in step 1 into an autoclave and heat it with water at 150°C for 10 hours, cool and centrifuge to obtain a sediment, wash it twice with ultrapure water, and dry to obtain the new material BiOCl-KIT-6.
[0045] The scanning electron microscope image of the new material BiOCl-KIT-6 is as follows figure 1 As shown, it can be seen from the figure that the BiOCl-KIT-6 composite material is a string structure composed of BiOCl microspheres, with a size of about 5-10 microns. The transmission electron microscope image of the obtained product is as figure 2 As shown, it can be clearly seen from the figure that the BiOCl-KIT-6 composite material has a typical mesoporous network structure of mesoporous silica (KIT-6) and a cr...
Embodiment 2
[0053] 1). Add 1.5mol BiCl 3 Dissolve in ethylene glycol solution, heat and stir at 15°C to dissolve, add 0.75mol KIT-6, continue heating and stirring for 2 hours, add 1.5mol NaCl solid, stir and mix evenly.
[0054] 2). Transfer the suspension obtained in step 1 into an autoclave and heat it with water at 200°C for 5 hours, cool and centrifuge to obtain a sediment, wash 5 times with ultrapure water, and dry to obtain the new material BiOCl-KIT-6.
[0055] The new material BiOCl-KIT-6 is a string structure composed of BiOCl microspheres, with a size of about 5 microns; it has the typical mesoporous network structure of mesoporous silicon oxide (KIT-6) and the crystal structure of BiOCl, It can be directly proved that the obtained product is BiOCl-KIT-6. KIT-6 was used as a cross-linking agent to link BiOCl microspheres into strings.
[0056] 3). Before grinding, place the glassy carbon electrode in water to ultrasonically remove the dirt on the electrode surface to ensure th...
Embodiment 3
[0062] 1). Add 1.6mol Bi(NO 3 ) 3 Dissolve in ethylene glycol solution, heat and stir at 20°C to dissolve, add 0.2mol KIT-6, continue heating and stirring for 2 hours, add 10mol NaCl solid, stir and mix evenly.
[0063] 2). Transfer the suspension obtained in step 1 into an autoclave and heat it with water at 170°C for 6 hours, cool and centrifuge to obtain a sediment, wash with ultrapure water for 3 times, and dry to obtain the new material BiOCl-KIT-6.
[0064] The new material BiOCl-KIT-6 is a string structure composed of BiOCl microspheres with a size of about 10 microns; it has the typical mesoporous network structure of mesoporous silicon oxide (KIT-6) and the crystal structure of BiOCl, It can be directly proved that the obtained product is BiOCl-KIT-6. KIT-6 was used as a cross-linking agent to link BiOCl microspheres into strings.
[0065] 3). Weigh 0.03g of KIT-6, BiOCl and the BiOCl-KIT-6 composite material obtained in step 2 respectively in a test tube, add 30ml...
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