2009Unpublished venueRequires access

Mechanism and characteristic of dielectric barrier multi-pulse glow discharge in helium at atmospheric pressure

Lin Yang, Yanpeng Hao, Enlai Tu, Xiaolei Wang, Jianyang Chen

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Abstract

Modes of dielectric barrier multi-pulse discharge were investigated under an 11.85 kHz voltage in helium at atmospheric pressure based on a fast-gated intensified charge coupled device (ICCD) camera. Electrical parameters of gas gap were calculated via the simplified circuit of dielectric barrier discharge for discussing the forming reason of multi-pulse discharge. The discharge evolution photographs show that physical process of the first pulse in an atmospheric helium multi-pulse discharge is from Townsend discharge to glow discharge, and that of the other subsequent current pulses is glow discharge. Discharge gap still maintains a weak glow discharge in the interval time between two consecutive current pulses. Experimental observations and simulation results are in good agreement. Multi-pulse discharge is proved to be the glow discharge and a co-evolution result of both surface charges and the applied voltage.

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What this paper is about

Modes of dielectric barrier multi-pulse discharge were investigated under an 11.85 kHz voltage in helium at atmospheric pressure based on a fast-gated intensified charge coupled device (ICCD) camera. Electrical parameters of gas gap were calculated via the simplified circuit of dielectric barrier discharge for discussing the forming reason of multi-pulse discharge. The discharge evolution photographs show that physical process of the first pulse in an atmospheric helium multi-pulse discharge is from Townsend discharge to glow discharge, and that of the other subsequent current pulses is glow discharge. Discharge gap still maintains a weak glow discharge in the interval time between two consecutive current pulses. Experimental observations and simulation results are in good agreement. Multi-pulse discharge is proved to be the glow discharge and a co-evolution result of both surface charges and the applied voltage.

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Available abstract

Modes of dielectric barrier multi-pulse discharge were investigated under an 11.85 kHz voltage in helium at atmospheric pressure based on a fast-gated intensified charge coupled device (ICCD) camera. Electrical parameters of gas gap were calculated via the simplified circuit of dielectric barrier discharge for discussing the forming reason of multi-pulse discharge. The discharge evolution photographs show that physical process of the first pulse in an atmospheric helium multi-pulse discharge is from Townsend discharge to glow discharge, and that of the other subsequent current pulses is glow discharge. Discharge gap still maintains a weak glow discharge in the interval time between two consecutive current pulses. Experimental observations and simulation results are in good agreement. Multi-pulse discharge is proved to be the glow discharge and a co-evolution result of both surface charges and the applied voltage.

Key concepts: Dielectric barrier discharge, Glow discharge, Helium, Townsend discharge, Brush discharge, Atmospheric pressure, Partial discharge, Atomic physics

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