Detailed Information on Publication Record
2006
Numerical modeling of dielectric barrier discharge in neon
JÁNSKÝ, Jaroslav and David TRUNECBasic information
Original name
Numerical modeling of dielectric barrier discharge in neon
Name in Czech
Numerické modelování dielektrického bariérového výboje v neonu
Authors
JÁNSKÝ, Jaroslav (203 Czech Republic) and David TRUNEC (203 Czech Republic, guarantor)
Edition
Czechoslovak Journal of Physics, Praha, Springer Netherlands, 2006, 0011-4626
Other information
Language
English
Type of outcome
Článek v odborném periodiku
Field of Study
10305 Fluids and plasma physics
Country of publisher
Czech Republic
Confidentiality degree
není předmětem státního či obchodního tajemství
Impact factor
Impact factor: 0.568
RIV identification code
RIV/00216224:14310/06:00025568
Organization unit
Faculty of Science
UT WoS
000241336500023
Keywords in English
dielectric barrier discharge; neon; modelling
Tags
International impact, Reviewed
Změněno: 23/6/2009 13:53, prof. RNDr. David Trunec, CSc.
V originále
Numerical calculations of spatio-temporal characteristics of the breakdown in the dielectric barrier discharge in neon at atmospheric pressure between parallel-plate electrodes were performed using one-dimensional fluid model. The hydrodynamic set of equations (continuity equations with Poisson equation) was solved using the improved Sharfetter-Gummel algorithm combined with the adaptive step Runge{Kutta method. This algorithm allowed the simulation with high gradient of particle density in reasonable time. The time development of ion and electron densities during the avalanche phase and cathode streamer propagation phase was presented. The influence of the parameters of dielectrics on the breakdown was analyzed.
In Czech
Numerical calculations of spatio-temporal characteristics of the breakdown in the dielectric barrier discharge in neon at atmospheric pressure between parallel-plate electrodes were performed using one-dimensional fluid model. The hydrodynamic set of equations (continuity equations with Poisson equation) was solved using the improved Sharfetter-Gummel algorithm combined with the adaptive step Runge{Kutta method. This algorithm allowed the simulation with high gradient of particle density in reasonable time. The time development of ion and electron densities during the avalanche phase and cathode streamer propagation phase was presented. The influence of the parameters of dielectrics on the breakdown was analyzed.
Links
| MSM 143100003, plan (intention) |
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