Numerical Investigation of The Effect of Fin Thickness on Straight Fin Heat Sink on Heat Transfer Performance

Authors

  • Muhamad Safi'i Universitas Sains Al Qur'an Wonosobo
  • Nazaruddin Sinaga Departement of Mechanical Engineering, Faculty of Engineering, Diponegoro University
  • Tabah Priangkoso Departement of Mechanical Engineering, Faculty of Engineering, Wahid Hasyim University
  • Suheri Suheri Departement of Mechanical Engineering, Faculty of Engineering, Samudera University
  • Rouf Muhammad Departement of Mechanical Engineering, Faculty of Engineering, State Polytechnic of Jakarta PSDKU Demak

DOI:

https://doi.org/10.36499/jim.v21i1.12682

Keywords:

Heat sink, SFHS, Straight fin

Abstract

The heat load on computer chips during computing performance is the main topic, so a cooling device is needed. Heat sink is one of the tools commonly applied to reduce the heat load during computing performance of computer systems. Various heat sink configurations have been widely developed and studied to obtain designs with the best thermal performance. This research was conducted to investigate the best design on a straight fin heat sink (SFHS) that has the best thermal and hydraulic performance. SFHS with fin thickness variations of 1 mm, 2 mm, and 3 mm are proposed in this study. The numerical method was carried out using the Computational Flui Dynamics program by considering fluid flow velocities of 4 m/s, 6 m/s, 8 m/s and 10 m/s. The numerical results show that the cooling rate of SFHS can be increased by using SFHS with a thickness of 3 mm and a fluid flow velocity of 10 m/s with a maximum Nusselt number value of 59.74. Therefore, it is concluded that the SFHS has prospects for further study and can be applied practically in the field for micro electronic components and computer systems.

 

Keywords: Heat sink, SFHS, Straight fin.

Author Biographies

Nazaruddin Sinaga, Departement of Mechanical Engineering, Faculty of Engineering, Diponegoro University

Lecture

Tabah Priangkoso, Departement of Mechanical Engineering, Faculty of Engineering, Wahid Hasyim University

Lecture

Suheri Suheri, Departement of Mechanical Engineering, Faculty of Engineering, Samudera University

Lecture

Rouf Muhammad, Departement of Mechanical Engineering, Faculty of Engineering, State Polytechnic of Jakarta PSDKU Demak

Lecture

References

Yifan L., Congzhe Z., Guodong X., (2025). Experimental investigation on the Phase Change Liquid Cooling Characteristics in the Offset Grooved Microchannel Heat Sink. Applied Thermal Engineering. 269(1), 1-14.

Sherin. M., Gaosheng. W., Hoosam A. M. El-Hamid., (2025) Multi-Objective Optimization of Grooved Circular Pin-Finned Heat Sink with Phase Change Material. Applied Thermal Engineering. 262(2), 1-12.

John. S. S., Ravikiran C., Bridjesh. P., Seshibe M., (2025). Novel Design of Serpentine Channel Heat Sinks with Rectangular and Triangular Ribs and Grooves for 25Ah Li-Ion Battery Thermal Management. International Journal of Thermofluids. 25(1), 1-18.

Yongrui. B., Zhen. C., Zhenzhou. L., Yuxiang L., Yuetong L., Xu Lu., Ding Y., Zhenfei F., (2025). Experimental Investigation on the Effects of Inclined Grooves on Flow Boiling Heat Transfer and Instability in a Minichannel Heat Sink. International Journal of Heat and Mass Transfer. 236(2), 1-13.

Safi’i, M., Sinaga, N., Syaiful, & Sukiman. (2022). Computational Study of the Effect of Fin Longitudinal Spacing and Reynolds Number on the Performance of Oblique Heat Sinks. International Research Journal of Innovations in Engineering and Technology (IRJIET), 6(9), 27-38.

Safi'i, M., Sinaga, N., Priangkoso, T., Susanto, S., & Digdoyo, A. (2024). Investigasi Model Numerik pada Simulasi Heat Sink Sirip Lurus Dengan Memvariasikan Jumlah Grid, Model Viscous dan Metode Pemecahan dengan Pendinginan Konveksi Bebas. Jurnal Ilmiah Momentum, 20(1), 31-41.

Huang. C. H and Chen W. Y., (2022). A Natural Convection Horizontal Straight-Fin Heat Sink Design Problem To Enhance Heat Dissipation Performance. International Journal Thermal Science, 176(2), 1-13.

Moradikazerouni. A, Afrand. M, Alsarraf. J, Wongwises. S, Asadi. A, and Nguyen. T. K. (2019). Investigation of a Computer CPU Heat Sink Under Laminar Forced Convection using a Structural Stability Method. International Journal Heat and Mass Transfer. 134(3), 1218–1226.

Pan. M, Chen. Z, and Li C. (2021). Experiment and Simulation analysis of Oriented Cut Copper Fibre Heat Sink for LED Water Cooling,” Case Study Thermal Engineering. 24(4), 1- 17.

Mohamed. H., Roberta. P., Ahmed E., Jason D., Roger K., (205) A Lightweight Additively Manufactured Two-Phase Integrated Natural Convection Heat Sink. Applied Thermal Engineering.

Hussein S. S., Khalid B. Saleem., Badr. M. A., Mohamed T., Abdelkarim A., Lioua K., (2024). Numerical Investigation of Natural Convection From a Horizontal Heat Sink with an Array of Rectangular Fins. Case Studies in Thermal Engineering. 61(4), 1-16.

Ishtiaque H. M. D., Samiul H. C., Syed S. U. Ahmed., Abu Hamja., Istiaq J. S., (2025). Forced Convective Heat Transfer Over Twisted and Perforated Forked Pin Fin Heat Sink: a Numerical Study. International Journal of Thermal Sciences. 211(1), 1-15.

Alihosseini. Y., Targhi. M. Z., and Heyhat. M. H., (2020). Thermohydraulic Performance of Wavy Microchannel Heat Sink with Oblique Grooved Finned. Applied Thermal Engineering. 189(2), 1-11.

Song. J. G., Lee. J. H., and Park. I. S., (2021). Enhancement of the cooling Performance of Naval Combat Management System using Heat Pipe. Applied Thermal Engineering. 188(2), 1-12.

Alihosseini. Y., Targhi. M. Z,, and Heyhat. M. H., (2020). Thermohydraulic Performance of Wavy Microchannel Heat Sink with Oblique Grooved Finned. Applied Thermal Engineering. 189(2), 1-11.

Kanargi. B., Tan. J. M. S., Lee. P. S., and Yap. C., (2020). A Tapered Inlet/Outlet Flow Manifold for Planar, Air-Cooled Oblique Finned Heat Sinks. Applied Thermal Engineering. 174(1), 1-18.

Ehtesham. A., Sajan T., Jaehyun. P., Jaemun. C., Jaehun. C., Chanwoo. P., Hesung. P., (2024). A Novel Spiral Grooved Cooling Path Heat Sink for the Cooling of High Voltage Direct Current Devices. International Journal of Thermal Sciences. 195(3), 1-16.

Anas. A., Fadi. A., Bobby. M., (2024). Characterization of MEMS Heat Sinks Having Straight Microchannels Integrating Square Pin-Fins for Liquid Cooling of Microelectronic Chips. Thermal Science and Engineering Progress. 45(4), 1-15.

Refaey. H. A., Mathkar A. A., Samir. B., Said. G. K., Mohamed. E., Abdelrahman. M. A., (2023). An Experimental Investigation on Passive Cooling of a Triple-Junction Solar Cell at High Concentrations Using Various Straight-Finned Heat Sink Configurations. Case Studies in Thermal Engineering. 51(2), 1-17.

Nedal. O. E. S., Fadi. A., Bee. T. C., Bobby. M., (2025). Performance Evaluation of MEMS Heat Sinks Having Straight Microchannels Integrating Rectangular Sidewall Cavities in In-Line Pattern. Applied Thermal Engineering. 266(1), 1-16.

Jin. Y., Yongfeng. Q., Ningkang. D., Liang. D., Wenbo. H., Xiaofan. Z., Shengli. W., Hongxing. W., (2023). Three-Dimensional Numerical Investigation of Flow and Heat Transfer Performances of Novel Straight Microchannel Heat Sinks. Diamond and Related Materials. 140(1), 1-18.

Jianlei. C., Haozhe. K., Jian. D., Xiangyang. D., Zhijun. W., Zhengjie. F., Wenjun. W., Xuesong. M., (2024). High-Quality Fabrication of Diamond Straight Microchannels Heat Sink with Large Aspect Ratio Microchannels using UV Nanosecond Laser Based On Multi-Feed Method. Optics & Laser Technology. 171(2), 1-18.

Adhikari. R. C., Wood. D. H., Pahlevani. M., (2020). An Experimental and Numerical Study of Forced Convection Heat Transfer from Rectangular Fins at Low Reynolds Numbers. International Journal of Heat and Mass Transfer. 163(3), 1-12.

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Published

2025-04-30

How to Cite

Safi’i, M., Sinaga, N., Priangkoso, T., Suheri, S., & Muhammad, R. (2025). Numerical Investigation of The Effect of Fin Thickness on Straight Fin Heat Sink on Heat Transfer Performance . Jurnal Ilmiah Momentum, 21(1), 21–32. https://doi.org/10.36499/jim.v21i1.12682

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