Georges Zissis

Prof. Georges Zissis

LAPLACE UMR 5213 CNRS-INPT-UT3, Université Toulouse III - Paul Sabatier, Toulouse, Occitanie, France
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Research Focus & Metrics

Academic Career Length

37Years (1990-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 July 2011 in Progress in Retinal and Eye Research
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Journal Article
Closed access
FBF. Behar-Cohen
F. Behar-Cohen
Christophe MartinsonsChristophe Martinsons
Christophe Martinsons
FVF. Viénot
F. Viénot
Georges ZissisGeorges Zissis
Georges Zissis
ABA. Barlier-Salsi
A. Barlier-Salsi
DAD. Attia
D. Attia

1 July 2018 in Landscape and Urban Planning
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Journal Article
Closed access
CAClémentine Azam
Clémentine Azam
IVIsabelle Le Viol
Isabelle Le Viol
YBYves Bas
Yves Bas
Georges ZissisGeorges Zissis
Georges Zissis
AVArthur Vernet
Arthur Vernet
CKChristian Kerbiriou
Christian Kerbiriou

1 November 2019 in Sustainable Cities and Society
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Journal Article
Closed access
LDL.T. Doulos
L.T. Doulos
ISI. Sioutis
I. Sioutis
PKP. Kontaxis
P. Kontaxis
Georges ZissisGeorges Zissis
Georges Zissis
KFK. Faidas
K. Faidas

1 November 2017 in Applied Thermal Engineering
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Journal Article
Closed access
KAK. Ben Abdelmlek
K. Ben Abdelmlek
ZAZ. Araoud
Z. Araoud
KCK. Charrada
K. Charrada
Georges ZissisGeorges Zissis
Georges Zissis

6 August 2009 in Journal of Physics D: Applied Physics
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Journal Article
Closed access
Georges ZissisGeorges Zissis
Georges Zissis
SKS Kitsinelis
S Kitsinelis

14 September 1996 in Journal of Physics D: Applied Physics
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Journal Article
Closed access
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KCK Charrada
K Charrada
Georges ZissisGeorges Zissis
Georges Zissis
MAM Aubes
M Aubes
This paper deals with a two-temperature, two-dimensional modelling of a mercury high-pressure plasma stabilized by walls. We consider here a plasma composed of neutral particles, singly ionized positive ions and electrons. Both electron and heavy particle energies are supposed to follow Maxwell distribution functions at different temperatures. Moreover, the electrons were supposed to be carried by the heavy particles in their laminar convection movement. Hydrodynamic conservation equations are then solved by using a 2D semi-implicit finite element scheme. After validation the model is used to discuss deviations from thermal equilibrium due to external arc parameters such as arc current and pressure. These deviations are expressed as differences between electron and heavy particle temperatures. Our results confirm quantitatively for the first time the existence of thermal equilibrium deviations in such types of discharge. These deviations could be significant in many cases, especially when current or pressure is relatively low. Furthermore, we show that, in such types of discharge, the hot core is always closer to thermal equilibrium than the outer discharge jacket.