DocumentCode :
3449907
Title :
Fully kinetic simulation of atmospheric pressure microcavity discharge device
Author :
Hopkins, Matthew M. ; Manginell, Ronald P. ; Boerner, Jeremiah J. ; Moore, Christopher H. ; Moorman, Matthew W.
Author_Institution :
Sandia Nat. Labs., Albuquerque, NM, USA
fYear :
2015
fDate :
24-28 May 2015
Firstpage :
1
Lastpage :
1
Abstract :
Summary form only given. In this talk we will present our recent work on simulating the discharge process in a microscale device using the PIC-DSMC simulation code Aleph. Microcavity discharges have been experimentally studied and computationally simulated, but to our knowledge there have been no completely kinetic simulations. The nominal breakdown process under consideration occurs due to a large field applied across a dielectric spacer between anode and electrode surfaces. Ideally, one would be able to exhibit control over the plasma chemistry (e.g., selection of specific excitations) and predict spatial and temporal evolution. In particular, pre-initiation behavior, initiation itself, and convergence to a subsequent steady state will be presented. Scaled results and comparison to existing device measurements will also be provided.
Keywords :
discharges (electric); microcavities; plasma chemistry; plasma devices; plasma kinetic theory; plasma simulation; PIC-DSMC simulation code Aleph; anode; atmospheric pressure microcavity discharge device; dielectric spacer; electrode; fully kinetic simulation; nominal breakdown process; plasma chemistry; pre-initiation behavior; spatial evolution; temporal evolution; Atmospheric modeling; Computational modeling; Discharges (electric); Kinetic theory; Laboratories; Microcavities; Silicon;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Plasma Sciences (ICOPS), 2015 IEEE International Conference on
Conference_Location :
Antalya
Type :
conf
DOI :
10.1109/PLASMA.2015.7179947
Filename :
7179947
Link To Document :
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