Oxidation of indoor air pollutant HCHO by spontaneous polarization plasma and photocatalyst

Wen Jun Liang; Lin Ma; Jian Li; Huan Liu; Hong He

Oxidation of indoor air pollutant HCHO by spontaneous polarization plasma and photocatalyst

Wen Jun Liang^*, Lin Ma, Jian Li, Huan Liu, Hong He

^*Corresponding author for this work

Beijing University of Technology

Research output: Contribution to journal › Article › peer-review

Abstract

Destruction of indoor air pollutant formaldehyde using dielectric barrier discharge plasma in a coaxial cylindrical reactor was carried out at atmospheric pressure and room temperature. Three kinds of catalysts, that is, TiO ₂, BaTiO₃, or TiO₂ & BaTiO₃ were tested for HCHO removal. Effect of catalyst carrier, catalysts, and catalyst amount on specific energy density (SED), energy yield (EY) and HCHO removal efficiency were investigated. The byproduct was detected and the mechanism of HCHO degradation was performed. It had been found that DBD reactor contained TiO₂ & BaTiO₃ catalysts could effectively decompose formaldehyde. The HCHO conversion of three kinds of catalyst was TiO₂ & BaTiO₃ > BaTiO₃ > TiO₂. Higher amount of BaTiO₃ in TiO₂ & BaTiO₃ catalysts was slightly superior to the smaller. Furthermore, TiO₂ & BaTiO₃ catalyst could not only enhance the HCHO removal efficiency, but also save the energy, which could be used for industrial application.

Original language	English
Pages (from-to)	3665-3672
Number of pages	8
Journal	Fresenius Environmental Bulletin
Volume	22
Issue number	12 A
Publication status	Published - 2013
Externally published	Yes

Keywords

Dielectric barrier discharge
Formaldehyde
Photocatalyst
Specific energy density
Spontaneous polarization plasma

Cite this

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title = "Oxidation of indoor air pollutant HCHO by spontaneous polarization plasma and photocatalyst",

abstract = "Destruction of indoor air pollutant formaldehyde using dielectric barrier discharge plasma in a coaxial cylindrical reactor was carried out at atmospheric pressure and room temperature. Three kinds of catalysts, that is, TiO 2, BaTiO3, or TiO2 & BaTiO3 were tested for HCHO removal. Effect of catalyst carrier, catalysts, and catalyst amount on specific energy density (SED), energy yield (EY) and HCHO removal efficiency were investigated. The byproduct was detected and the mechanism of HCHO degradation was performed. It had been found that DBD reactor contained TiO2 & BaTiO3 catalysts could effectively decompose formaldehyde. The HCHO conversion of three kinds of catalyst was TiO2 & BaTiO3 > BaTiO3 > TiO2. Higher amount of BaTiO3 in TiO2 & BaTiO3 catalysts was slightly superior to the smaller. Furthermore, TiO2 & BaTiO3 catalyst could not only enhance the HCHO removal efficiency, but also save the energy, which could be used for industrial application.",

keywords = "Dielectric barrier discharge, Formaldehyde, Photocatalyst, Specific energy density, Spontaneous polarization plasma",

author = "Liang, {Wen Jun} and Lin Ma and Jian Li and Huan Liu and Hong He",

year = "2013",

language = "English",

volume = "22",

pages = "3665--3672",

journal = "Fresenius Environmental Bulletin",

issn = "1018-4619",

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TY - JOUR

T1 - Oxidation of indoor air pollutant HCHO by spontaneous polarization plasma and photocatalyst

AU - Liang, Wen Jun

AU - Ma, Lin

AU - Li, Jian

AU - Liu, Huan

AU - He, Hong

PY - 2013

Y1 - 2013

N2 - Destruction of indoor air pollutant formaldehyde using dielectric barrier discharge plasma in a coaxial cylindrical reactor was carried out at atmospheric pressure and room temperature. Three kinds of catalysts, that is, TiO 2, BaTiO3, or TiO2 & BaTiO3 were tested for HCHO removal. Effect of catalyst carrier, catalysts, and catalyst amount on specific energy density (SED), energy yield (EY) and HCHO removal efficiency were investigated. The byproduct was detected and the mechanism of HCHO degradation was performed. It had been found that DBD reactor contained TiO2 & BaTiO3 catalysts could effectively decompose formaldehyde. The HCHO conversion of three kinds of catalyst was TiO2 & BaTiO3 > BaTiO3 > TiO2. Higher amount of BaTiO3 in TiO2 & BaTiO3 catalysts was slightly superior to the smaller. Furthermore, TiO2 & BaTiO3 catalyst could not only enhance the HCHO removal efficiency, but also save the energy, which could be used for industrial application.

AB - Destruction of indoor air pollutant formaldehyde using dielectric barrier discharge plasma in a coaxial cylindrical reactor was carried out at atmospheric pressure and room temperature. Three kinds of catalysts, that is, TiO 2, BaTiO3, or TiO2 & BaTiO3 were tested for HCHO removal. Effect of catalyst carrier, catalysts, and catalyst amount on specific energy density (SED), energy yield (EY) and HCHO removal efficiency were investigated. The byproduct was detected and the mechanism of HCHO degradation was performed. It had been found that DBD reactor contained TiO2 & BaTiO3 catalysts could effectively decompose formaldehyde. The HCHO conversion of three kinds of catalyst was TiO2 & BaTiO3 > BaTiO3 > TiO2. Higher amount of BaTiO3 in TiO2 & BaTiO3 catalysts was slightly superior to the smaller. Furthermore, TiO2 & BaTiO3 catalyst could not only enhance the HCHO removal efficiency, but also save the energy, which could be used for industrial application.

KW - Dielectric barrier discharge

KW - Formaldehyde

KW - Photocatalyst

KW - Specific energy density

KW - Spontaneous polarization plasma

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M3 - Article

AN - SCOPUS:84896530092

SN - 1018-4619

VL - 22

SP - 3665

EP - 3672

JO - Fresenius Environmental Bulletin

JF - Fresenius Environmental Bulletin

IS - 12 A

ER -

Oxidation of indoor air pollutant HCHO by spontaneous polarization plasma and photocatalyst

Abstract

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