LI JIE

Professor   Supervisor of Doctorate Candidates   Supervisor of Master's Candidates

Gender:Male

Alma Mater:大连理工大学

Degree:Doctoral Degree

School/Department:电气工程学院

Discipline:Environmental Engineering. Theory and New Technology of Electrical Engineering. High Voltage and Insulation Technology

Business Address:大连理工大学电气工程学院静电所


Paper Publications

Characterization of a novel volume-surface DBD reactor: discharge characteristics, ozone production and benzene degradation

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Indexed by:Journal Papers

Date of Publication:2020-02-06

Journal:JOURNAL OF PHYSICS D-APPLIED PHYSICS

Included Journals:EI、SCIE

Volume:53

Issue:6

ISSN No.:0022-3727

Key Words:surface DBD; hybrid volume-surface DBD; plasma distribution; ozone; VOCs treatment

Abstract:Surface dielectric barrier discharge (SDBD) is very efficient for the production of reactive species to degrade gaseous pollutants, but the streamer propagation only along the dielectric surface limits the gas treatment capacity. In our experiments, an additional ground electrode pasted on a dielectric was arranged over the surface electrode to form a hybrid volume-surface DBD (V-SDBD) configuration for enlarging the spatial distribution of discharge plasma. The current waveforms, discharge images and power measurements indicate that the V-SDBD configuration produced more steamer channels and induced the development of discharge filaments towards the air gap, leading to more production of ozone and higher benzene degradation efficiency compared to SDBD configuration. At the conditions of 16 kV applied voltage, 2.8 mm air gap spacing and 1 l min-1 air flow rate, the ozone concentration and benzene degradation efficiency of V-SDBD configuration were 3.45 times and 2.15 times that of SDBD configuration, respectively, which may be contributed to the enhanced electric discharge and the enlarged spatial plasma distribution in V-SDBD device compared to SDBD device.

Pre One:Plasma-catalytic degradation of benzene over Ag-Ce bimetallic oxide catalysts using hybrid surface/packed-bed discharge plasmas

Next One:Enhanced catalytic performance of CoOx-CeO2 for synergetic degradation of toluene in multistage sliding plasma system through response surface methodology (RSM)