Por favor, use este identificador para citar o enlazar este ítem: https://hdl.handle.net/10259/11939
Título
Mathematical Modeling of the Flash Method for Determing the Thermal Diffusivity of Construction Building Materials
Autor
Publicado en
Mathematics and Intelligent Systems in Industry. MISI 2025, p. 287–299
Editorial
Springer
Fecha de publicación
2026
ISBN
978-3-032-17079-8
DOI
10.1007/978-3-032-17079-8_18
Descripción
Comunicación presentada en: The International Conference on Mathematics and Intelligent Systems in Industry (MISI'25), Safi, Morocco, July 9–10, 2025
Résumé
The choice of construction and thermal insulation materials relies primarily on their thermophysical properties, notably thermal conductivity (λ), specific heat capacity (cp), and thermal diffusivity (a). Accurate determination of these properties is essential for evaluating the thermal behavior of materials in buildings. Various experimental methods, classified according to the type of heat transfer regime (steady-state or transient), are used for this purpose. This study fits into this context by focusing on the mathematical modeling of the Flash method, in accordance with ASTM standard E1461-13. This method, which was designed and developed in our laboratory, allows for the determination of the thermal diffusivity a (m2/s) of materials under transient conditions. The developed mathematical model is based on the assumption of one-dimensional heat transfer, taking into account heat losses on both the front and rear faces of the sample being characterized. The shape of the thermal pulse generated by the apparatus was experimentally determined, and the recorded data were modeled using a script written in the Mathematica language. The characterization results will be presented and discussed.
Palabras clave
Thermal diffusivity
Flash method
Mathematical modeling
Heat transfer
Thermophysical properties
Materia
Calor-Conducción
Heat-Conduction
Modelos matemáticos
Mathematical models
Versión del editor
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Ouakarrouch-MISI_2025_2026.pdfEmbargado hasta: 2027-04-01
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