One-pot synthesis of porous silica-supported ultrafine Ni nanoparticles as efficient and stable catalyst for selective hydrogenation of benzophenone

[Display omitted] •Ni(7%)@pSiO2-Alg was developed by a facile one-pot co-assembly syntheses strategy.•Ni(II) chelated alginate hydrogel acts as metal precursor and sacrificial template.•In-situ generated Na2CO3 is the key factor for improved selectivity of benzhydrol.•This catalyst exhibited good ac...

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Veröffentlicht in:Applied catalysis. B, Environmental Environmental, 2019-12, Vol.259, p.118111, Article 118111
Hauptverfasser: Qiao, Xianliang, She, Tiantian, Zhang, Huiling, Wen, Xin, Niu, Libo, Ricardez-Sandoval, Luis, Li, Jingde, Bai, Guoyi
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container_end_page
container_issue
container_start_page 118111
container_title Applied catalysis. B, Environmental
container_volume 259
creator Qiao, Xianliang
She, Tiantian
Zhang, Huiling
Wen, Xin
Niu, Libo
Ricardez-Sandoval, Luis
Li, Jingde
Bai, Guoyi
description [Display omitted] •Ni(7%)@pSiO2-Alg was developed by a facile one-pot co-assembly syntheses strategy.•Ni(II) chelated alginate hydrogel acts as metal precursor and sacrificial template.•In-situ generated Na2CO3 is the key factor for improved selectivity of benzhydrol.•This catalyst exhibited good activity and stability in benzophenone hydrogenation. In this work, we report a silica-supported ultrafine Ni catalyst for the selective hydrogenation of benzophenone. This material was developed by a facile one-pot co-assembly syntheses strategy, using Ni(II) chelated alginate hydrogel as metal precursor and sacrificial template. Due to the highly active and uniformly dispersed Ni nanoparticles (NPs), 99.8% of benzophenone conversion was achieved. Remarkably, it also reached a 97.7% of selectivity for benzhydrol during benzophenone hydrogenation. Temperature-programmed desorption of ammonia (NH3-TPD) and Density Functional Theory (DFT) results reveal that the in-situ generated sodium carbonate (Na2CO3) derived from sodium alginate is essential in tuning the selectivity of benzhydrol: the existence of Na2CO3 reduces the surface acidity of catalyst and promotes the desorption of intermediate benzhydrol, preventing its further hydrogenolysis on the surface acidic sites of catalyst. Moreover, the supported Ni catalyst shows no significant loss of its activity during 20 times of recycling.
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In this work, we report a silica-supported ultrafine Ni catalyst for the selective hydrogenation of benzophenone. This material was developed by a facile one-pot co-assembly syntheses strategy, using Ni(II) chelated alginate hydrogel as metal precursor and sacrificial template. Due to the highly active and uniformly dispersed Ni nanoparticles (NPs), 99.8% of benzophenone conversion was achieved. Remarkably, it also reached a 97.7% of selectivity for benzhydrol during benzophenone hydrogenation. Temperature-programmed desorption of ammonia (NH3-TPD) and Density Functional Theory (DFT) results reveal that the in-situ generated sodium carbonate (Na2CO3) derived from sodium alginate is essential in tuning the selectivity of benzhydrol: the existence of Na2CO3 reduces the surface acidity of catalyst and promotes the desorption of intermediate benzhydrol, preventing its further hydrogenolysis on the surface acidic sites of catalyst. 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subjects Acidity
Alginate hydrogel
Alginic acid
Ammonia
Benzophenone
Benzophenone hydrogenation
Catalysts
Density functional theory
Desorption
High selectivity
Hydrogels
Hydrogenation
Hydrogenolysis
Nanoparticles
Ni nanoparticles
Nickel
Selectivity
Silica
Silicon dioxide
Sodium
Sodium alginate
Sodium carbonate
Stability
Ultrafines
title One-pot synthesis of porous silica-supported ultrafine Ni nanoparticles as efficient and stable catalyst for selective hydrogenation of benzophenone
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