Effects of position of semi-circular body on melting of a novel B4C/RT44HC PCM nanocomposite in a closed space

This study focuses on optimizing the thermal performance of a novel Boron Carbide (B 4 C) enhanced RT44HC phase change material (PCM) nanocomposite by analyzing the effects of different semi-circular partition placements within a closed cavity. The primary objective is to determine how the position of these adiabatic bodies influences the melting behavior, thermal conductivity, and energy storage capacity of the PCM. Through detailed computational modeling using the finite volume method and experimental validation, the research reveals that incorporating B 4 C nanoparticles significantly improves thermal performance, achieving up to a 69.65 % increase in thermal conductivity and a 19.68 % enhancement in energy storage capacity compared to pure PCM. The findings contribute to the field of advanced thermal energy storage and management by presenting a robust strategy for optimizing heat transfer in PCM systems, with potential applications in sustainable building design, electronic cooling, and energy-efficient technologies.

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Publication Details

Journal
Case Studies in Thermal Engineering
Published
2024-12-11
DOI
https://doi.org/10.1016/j.csite.2024.105628
Citations
18
Primary Topic
Phase Change Materials Research
Type
article
Field-Weighted Citation Impact
3.83

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article

Effects of position of semi-circular body on melting of a novel B4C/RT44HC PCM nanocomposite in a closed space

Hakan Coşanay, Hakan Fehmi Oztop, Muhammed Gür, Turan Gürgenç et al.
18 citations
Case Studies in Thermal Engineering
Phase Change Materials Research
3.83
article

Effects of position of semi-circular body on melting of a novel B4C/RT44HC PCM nanocomposite in a closed space

Hakan Coşanay, Hakan Fehmi Oztop, Muhammed Gür, Turan Gürgenç, Ezgi Gürgenç
article en
18 citations

Abstract

This study focuses on optimizing the thermal performance of a novel Boron Carbide (B 4 C) enhanced RT44HC phase change material (PCM) nanocomposite by analyzing the effects of different semi-circular partition placements within a closed cavity. The primary objective is to determine how the position of these adiabatic bodies influences the melting behavior, thermal conductivity, and energy storage capacity of the PCM. Through detailed computational modeling using the finite volume method and experimental validation, the research reveals that incorporating B 4 C nanoparticles significantly improves thermal performance, achieving up to a 69.65 % increase in thermal conductivity and a 19.68 % enhancement in energy storage capacity compared to pure PCM. The findings contribute to the field of advanced thermal energy storage and management by presenting a robust strategy for optimizing heat transfer in PCM systems, with potential applications in sustainable building design, electronic cooling, and energy-efficient technologies.

Case Studies in Thermal EngineeringVol. 65
Chandigarh University (IN), Osmaniye Korkut Ata University (TR), University of Arizona (US), Fırat University (TR), China Medical University Hospital (TW)
Türkiye Bilimsel ve Teknolojik Araştırma Kurumu, Firat University Scientific Research Projects Management Unit
Openalex Percentile: Top 6%
Phase Change Materials Research
3.83
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