Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid Dynamics

Computational fluid dynamics (CFD) simulations of a radio-frequency (13.56 MHz) electro-thermal capacitively coupled plasma (CCP) micro-thruster have been performed using the commercial CFD-ACE+ package. Standard operating conditions of a 10 W, 1.5 Torr argon discharge were used to compare with prev...

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Main Authors: Amelia eGreig, Christine eCharles, Roderick William Boswell
Format: Article
Language:English
Published: Frontiers Media S.A. 2015-01-01
Series:Frontiers in Physics
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fphy.2014.00080/full
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spelling doaj-1dc3ddea853e4959bd9a994110c5759c2020-11-24T21:07:55ZengFrontiers Media S.A.Frontiers in Physics2296-424X2015-01-01210.3389/fphy.2014.00080119735Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid DynamicsAmelia eGreig0Christine eCharles1Roderick William Boswell2The Australian National UniversityThe Australian National UniversityThe Australian National UniversityComputational fluid dynamics (CFD) simulations of a radio-frequency (13.56 MHz) electro-thermal capacitively coupled plasma (CCP) micro-thruster have been performed using the commercial CFD-ACE+ package. Standard operating conditions of a 10 W, 1.5 Torr argon discharge were used to compare with previously obtained experimental results for validation. Results show that the driving force behind plasma production within the thruster is ion-induced secondary electrons ejected from the surface of the discharge tube, accelerated through the sheath to electron temperatures up to 33.5 eV. The secondary electron coefficient was varied to determine the effect on the discharge, with results showing that full breakdown of the discharge did not occur for coefficients coefficients less than or equal to 0.01.http://journal.frontiersin.org/Journal/10.3389/fphy.2014.00080/fullcomputational fluid dynamicsradiofrequency plasmaselectric propulsionplasma thrustermicro-discharge
collection DOAJ
language English
format Article
sources DOAJ
author Amelia eGreig
Christine eCharles
Roderick William Boswell
spellingShingle Amelia eGreig
Christine eCharles
Roderick William Boswell
Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid Dynamics
Frontiers in Physics
computational fluid dynamics
radiofrequency plasmas
electric propulsion
plasma thruster
micro-discharge
author_facet Amelia eGreig
Christine eCharles
Roderick William Boswell
author_sort Amelia eGreig
title Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid Dynamics
title_short Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid Dynamics
title_full Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid Dynamics
title_fullStr Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid Dynamics
title_full_unstemmed Simulation of Main Plasma Parameters of a Cylindrical Asymmetric Capacitively Coupled Plasma Micro-Thruster using Computational Fluid Dynamics
title_sort simulation of main plasma parameters of a cylindrical asymmetric capacitively coupled plasma micro-thruster using computational fluid dynamics
publisher Frontiers Media S.A.
series Frontiers in Physics
issn 2296-424X
publishDate 2015-01-01
description Computational fluid dynamics (CFD) simulations of a radio-frequency (13.56 MHz) electro-thermal capacitively coupled plasma (CCP) micro-thruster have been performed using the commercial CFD-ACE+ package. Standard operating conditions of a 10 W, 1.5 Torr argon discharge were used to compare with previously obtained experimental results for validation. Results show that the driving force behind plasma production within the thruster is ion-induced secondary electrons ejected from the surface of the discharge tube, accelerated through the sheath to electron temperatures up to 33.5 eV. The secondary electron coefficient was varied to determine the effect on the discharge, with results showing that full breakdown of the discharge did not occur for coefficients coefficients less than or equal to 0.01.
topic computational fluid dynamics
radiofrequency plasmas
electric propulsion
plasma thruster
micro-discharge
url http://journal.frontiersin.org/Journal/10.3389/fphy.2014.00080/full
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AT christineecharles simulationofmainplasmaparametersofacylindricalasymmetriccapacitivelycoupledplasmamicrothrusterusingcomputationalfluiddynamics
AT roderickwilliamboswell simulationofmainplasmaparametersofacylindricalasymmetriccapacitivelycoupledplasmamicrothrusterusingcomputationalfluiddynamics
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