Volume 53, Issue 4 pp. 2148-2172
ORIGINAL ARTICLE

Thermal performance analysis of hollow bricks integrated phase change materials for various climate zones

Oumayma Babaharra

Oumayma Babaharra

Laboratory of Computer and Mathematical Process Engineering, Moulay Slimane University, ENSA Khouribga, Morocco

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Khadija Choukairy

Khadija Choukairy

Laboratory of Computer and Mathematical Process Engineering, Moulay Slimane University, ENSA Khouribga, Morocco

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Hamza Faraji

Corresponding Author

Hamza Faraji

National School of Applied Sciences, Cadi Ayyad University, Marrakech, Morocco

Correspondence Hamza Faraji, National School of Applied Sciences, Cadi Ayyad University, Marrakech, Morocco.

Email: [email protected] and [email protected]

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Kaoutar Khallaki

Kaoutar Khallaki

Laboratory of Computer and Mathematical Process Engineering, Moulay Slimane University, ENSA Khouribga, Morocco

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Said Hamdaoui

Said Hamdaoui

Ecole Supérieure de Technologie-Fes, U.S.M.B.A, Route d'Imouzzer, Fes, BP, Morocco

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Younes Bahammou

Younes Bahammou

Laboratory of Processes for Energy & Environment ProcEDE, Cadi Ayyad, University, Marrakesh, BP, Morocco

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First published: 26 February 2024

Abstract

This comprehensive research addresses the significant challenge of building-related energy consumption in Morocco. Our innovative approach involves integrating phase change materials (PCMs) into hollow bricks, strategically addressing the diverse climate zones prevalent in the country. The primary focus is on enhancing energy efficiency within structures. Leveraging detailed simulations and employing the enthalpy-porosity approach, our study models the impact of PCMs on internal temperatures. Optimal outcomes are achieved by partially filling brick holes with PCMs in specific configurations, demonstrating the materials' ability to adapt to varying conditions. A noteworthy finding is the 2–3-h phase shift observed in cold zones, indicating the potential for PCMs to effectively regulate temperatures. Equally significant is their capability to maintain a constant internal temperature of 26°C in hot zones, even amidst extreme external conditions reaching up to 47°C. This resilience underscores the novel and tailored thermal regulation potential of PCMs. Beyond the technical insights, our research highlights the paramount importance of considering regional climates in PCM applications' implementation. This awareness is crucial for optimizing energy performance in buildings and ensuring sustainability. In essence, this study contributes valuable knowledge and practical implications for the strategic deployment of PCMs to enhance building energy efficiency, emphasizing the need for context-specific solutions in diverse environmental conditions.

DATA AVAILABILITY STATEMENT

The data that support the findings of this study are available from the corresponding author upon reasonable request.

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