Predicting Mechanical and Thermal Behavior of Multiphase Composite Containing Phase Change Material (PCM) by Micromechanical Approaches

Salma Barboura; Jugurtha Meddour; Mohammed Haboussi; Mouhand Said Kachi; Laurent Royon

doi:10.4028/www.scientific.net/AMM.798.430

Paper Titles

The Spontaneous Growth of Pb Whisker from the Pb₆₀Sn₄₀ Solder Layer on the Au Coating
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Environmental Effects on the Static and Fatigue Behaviours of Hemp Fibre under Tensile Loading
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Epoxy Resin as a Binder in the Preparation of Rutile Coated Electrodes
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Research on Wear Mechanism of Solid Lubrication Bearing in Vacuum Environment
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Predicting Mechanical and Thermal Behavior of Multiphase Composite Containing Phase Change Material (PCM) by Micromechanical Approaches
p.430

Comparative Study of Effect of Cryogenics Heat Treatment and Case Hardening on the Wear Property of 20MnCr5
p.435

Intellectualization of Surface Layers, Working under Cyclic Loading and Reversing Friction
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Experimental Investigation of Machining Factors in Metal Turning Operation Using Shainin’s Variables Search Method
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Comparative Evaluation of Efficiency of Metal-Cutting Tool by Method of Pendulum Scribing
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HomeApplied Mechanics and MaterialsApplied Mechanics and Materials Vol. 798Predicting Mechanical and Thermal Behavior of...

Predicting Mechanical and Thermal Behavior of Multiphase Composite Containing Phase Change Material (PCM) by Micromechanical Approaches

Abstract:

This work is devoted to the study of thermal and mechanical properties (stiffness and thermal conductivity tensors) of multiphase composite materials (mortar with PCMs). A micro-macro modeling is presented in order to predict these properties by using some classical homogenization schemes. The effective thermo-mechanical behavior is then analyzed by considering various PCM particle forms, concentrations, and orientations.

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Periodical:

Applied Mechanics and Materials (Volume 798)

Pages:

430-434

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.798.430

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Online since:

October 2015

Authors:

Salma Barboura*, Jugurtha Meddour, Mohammed Haboussi, Mouhand Said Kachi, Laurent Royon

Keywords:

Ellipsoidal Inclusions, Homogenization, Mechanical Properties, Mori-Tanaka Approach, Phase Change Material, Thermal Properties

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