Dominique Baillis

Prof. Dr. Dominique Baillis

LaMCoS, INSA-Lyon, UMR CNRS 5259, 18-20, rue des Sciences, 69621 Villeurbanne cedex, France
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Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

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

Representative Publications

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2 July 2010 in Fire Technology
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Journal Article
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RCRémi Coquard
Rémi Coquard
DRDenis Rochais
Denis Rochais
Dominique BaillisDominique Baillis
Dominique Baillis

4 November 2005 in Journal of Heat Transfer
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Journal Article
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RCR. Coquard
R. Coquard
Dominique BaillisDominique Baillis
Dominique Baillis

1 June 2009 in Journal of Heat Transfer
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SLSylvain Lallich
Sylvain Lallich
FEFranck Enguehard
Franck Enguehard
Dominique BaillisDominique Baillis
Dominique Baillis

31 May 2009 in International Journal of Heat and Mass Transfer
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Journal Article
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Dominique BaillisDominique Baillis
Dominique Baillis
JRJaona Randrianalisoa
Jaona Randrianalisoa

1 October 2006 in Journal of Thermophysics and Heat Transfer
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Journal Article
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JRJaona Randrianalisoa
Jaona Randrianalisoa
Dominique BaillisDominique Baillis
Dominique Baillis
Laurent PilonLaurent Pilon
Laurent Pilon

8 March 2019 in Applied Sciences
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Journal Article
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ZSzahia Saghrouni
zahia Saghrouni
Dominique BaillisDominique Baillis
Dominique Baillis
NNNaim Naouar
Naim Naouar
Nawfal BlalNawfal Blal
Nawfal Blal
AJAbdelmajid Jemni
Abdelmajid Jemni
This study aims to study the thermal properties and the microstructure of composite materials based on mortar combined with Juncus maritimus fibers. Effective thermophysical properties of the composite materials containing Juncus maritimus fibers are experimentally and theoretically investigated. To better understand the morphology of these new composites, the corresponding microstructures were characterized in 2D by scanning electron microscope and in 3D using micro computed tomography. The local thermal conductivity of the Juncus maritimus fibers was identified using theoretical models and experimental measurement of the effective thermal conductivity of packed bed of crushed fibers. The thermal conductivity of the mortar matrix at given porosity was also determined using experimental measurement data and a theoretical model. The most appropriate analytical laws to predict effective thermal conductivity of mortar composites containing fibers are deduced from experimental thermal conductivity results.