Multi-objective optimization of various type finned heat sink with phase change materials (PCM)

Author:

Selvan N Muthamil,G Trilok,Gnanasekaran N

Abstract

Abstract The paper focuses on optimizing hybrid PCM filled heat sinks with a multi-objective approach. In the current study, the fins are oriented both horizontally at the sidewalls and vertically at the bottom side in the enclosure. Two heat sinks with different types of fin shapes are introduced in the enclosure. A rectangular shape finned heat sink, and a tapered shape finned heat sink is incorporated in both sidewalls and bottom walls. The study’s main goal is to optimize the PCM-based heat sink to prolong the charging cycle (melting) and shorten the discharging cycle (solidification). The PCM used in the study is n-eicosane, and the material for the heat sink is aluminum. A heat flux with constant supply of 2000 W/m2 is provided at the enclosure bottom, and the remaining walls are insulated. A 2-D numerical simulation is done using the commercial software ANSYS Fluent. The multi-objective optimization is carried out using the technique for order preference by similarity to ideal solution (TOPSIS) optimization technique. For a constant PCM volume for both the cases, fin spacing, fin positioning, and fin heights are varied. The output results determined the optimum configuration for the stretched melting period and minimized solidification period.

Publisher

IOP Publishing

Subject

General Engineering

Reference21 articles.

1. Experimental Investigation of Composite Phase Change Material Heat Sinks for Enhanced Passive Thermal Management;Miers;Journal of Heat Transfer,2020

2. An experimental approach to investigate thermal performance of paraffin wax and 1-hexadecanol based heat sinks for cooling of electronic system;Yuen Leong;International Communications in Heat and Mass Transfer,2019

3. Effect of inclination angle on the melting process of phase change material;Zennouhi,2017

4. Thermal performance of copper foam/paraffin composite phase change material;Zheng;Energy Conversion and Management,2018

5. Experimental and numerical study on the thermal behavior of phase change material infiltrated in low porosity metal foam;Hu;Journal of Energy Storage,2019

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