On the chronological understanding of the homogeneous dielectric barrier discharge

Author:

Lu Xinpei1ORCID,Fang Zhi2,Dai Dong3,Shao Tao4ORCID,Liu Feng2,Zhang Cheng4ORCID,Liu Dawei1ORCID,Nie Lanlan1,Jiang Chunqi56

Affiliation:

1. State Key Laboratory of Advanced Electromagnetic Engineering and Technology School of Electrical and Electronic Engineering Huazhong University of Science and Technology Wuhan China

2. College of Electrical Engineering and Control Science Nanjing Tech Technology Nanjing China

3. School of Electric Power South China University of Technology Guangzhou China

4. Institute of Electrical Engineering Chinese Academy of Sciences Beijing China

5. Frank Reidy Research Center for Bioelectrics Old Dominion University Norfolk Virginia USA

6. Department of Electrical and Computer Engineering Old Dominion University Norfolk Virginia USA

Abstract

AbstractDielectric barrier discharges (DBD) are widely utilised non‐equilibrium atmospheric pressure plasmas with a diverse range of applications, such as material processing, surface treatment, light sources, pollution control, and medicine. Over the course of several decades, extensive research has been dedicated to the generation of homogeneous DBD (H‐DBD), focussing on understanding the transition from H‐DBD to filamentary DBD and exploring strategies to create and sustain H‐DBD. This paper first discusses the influence of various parameters on DBD, including gas flow, dielectric material, surface conductivity, and mesh electrode. Secondly, a chronological literature review is presented, highlighting the development of H‐DBD and the associated understanding of its underlying mechanisms. This encompasses the generation of H‐DBD in helium, nitrogen, and air. Lastly, the paper provides a brief overview of multiple‐current‐pulse (MCP) behaviours in H‐DBD. The objective of this article is to provide a chronological understanding of homogeneous dielectric barrier discharge (DBD). This understanding will aid in the design of new experiments aimed at better comprehending the mechanisms behind H‐DBD generation and ultimately assist in achieving large‐volume H‐DBD in an air environment.

Funder

National Natural Science Foundation of China

Publisher

Institution of Engineering and Technology (IET)

Subject

Electrical and Electronic Engineering,Energy Engineering and Power Technology

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