Particle-in-cell Monte Carlo simulation using free path method for radio frequency argon discharge modelling: Comparison with experiment
Author(s) -
Djilali Benyoucef,
Mohammed Yousfi,
Bachir Belmadani
Publication year - 2012
Publication title -
international journal of the physical sciences
Language(s) - English
Resource type - Journals
ISSN - 1992-1950
DOI - 10.5897/ijps10.028
Subject(s) - argon , monte carlo method , mean free path , particle in cell , radio frequency , computational physics , path (computing) , collision , atomic physics , physics , energy (signal processing) , particle (ecology) , free electron model , electron , materials science , computer science , electrical engineering , mathematics , engineering , nuclear physics , statistics , oceanography , geology , programming language , computer security , quantum mechanics
A specific particle-in-cell Monte Carlo model which is based on an optimized free path method for collision treatment has been used to simulate a radiofrequency (RF) argon discharge at low pressure for parallel-plate geometry. In this model, the free path determination is independent of the electron energy; it depends only on the maximum of the total cross sections. The obtained results are in excellent agreement with experimental results taken from previous literature in the case of RF discharge in argon. Furthermore, the present model is faster than the classical one based on free time of flight method extensively used to study the low pressure electrical discharges. Key words: PIC MC technique, radiofrequency low pressure discharge, free path for collision treatment.
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