Thermal Performance of Double Walls With Polystyrene Bead Insufflation

Author:

Al Fakhoury Joelle12,Sassine Emilio3,Cherif Yassine2,Dgheim Joseph4,Antczak Emmanuel2,Chartier Thierry2

Affiliation:

1. ComUE Normandie Université Builders Ecole d’Ingénieurs, , Builders Lab 1, Rue Pierre et Marie Curie, Epron 14610 , France ;

2. University Artois, IMT Lille Douai, Junia, University Lille, ULR 4515, Laboratoire de Génie Civil et géo-Environnement (LGCgE) , Béthune F-62400 , France

3. Lebanese University Habitat and Energy Unit, Group of Mechanical, Thermal and Renewable Energies—Laboratory of Applied Physics (LPA-GMTER), Faculty of Sciences, Fanar Campus, , Beirut 2611 , Lebanon

4. Lebanese University Laboratory of Applied Physics (LPA-GMTER), Faculty of Sciences, , Habitat and Energy Unit, Group of Mechanical, Thermal and Renewable Energies, Fanar Campus, Beirut , Lebanon

Abstract

Abstract The improvement of the thermal and energy efficiency of buildings, regardless of their geographical location, is an objective that needs to be achieved quickly. The objective of this work is to develop a method to evaluate the thermal performance of a hollow block masonry double wall under controlled and pseudo-random experimental conditions. First, the thickness of the air space separating the two walls was varied to see the influence of the gap on this type of wall. Then, this technology was filled with polystyrene beads to improve the thermal performance at the wall scale. Finally, each case studied at wall scale was modeled and simulated numerically in 3D using COMSOL Multiphysics under the same conditions, properties, and dimensions as the one tested experimentally. The conclusions confirm that the double wall filled with polystyrene has excellent thermal behavior compared to the one without the addition of polystyrene beads and that the comparison between numerical and experimental results gave very satisfactory results.

Publisher

ASME International

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