Effect of perforated and smooth fins on thermal performance of a latent heat energy system

Other Title(s)

تأثير الزعانف المثقبة والملساء على الأداء الحراري في نظام طاقة حرارة كامنة

Joint Authors

al-Hamdu, Muhammad Hamid
Zaidan, Maitham Jamil

Source

Journal of Engineering and Sustainable Development

Issue

Vol. 23, Issue 6 (30 Nov. 2019), pp.109-127, 19 p.

Publisher

al-Mustansyriah University College of Engineering

Publication Date

2019-11-30

Country of Publication

Iraq

No. of Pages

19

Main Subjects

Social Sciences (Multidisciplinary)

Topics

Abstract EN

This work includes design, manufacture and improvement of a Waste Heat Recovery System (WHRS) for thermal energy storage unit by using PCM technique.

Paraffin wax produced by Al- Durra refinery (major Iraqi oil company) has been used as a phase change material for this purpose.

The heat transfer enhancement has been investigated experimentally and numerically by using perforated and smooth copper strips which inserted within paraffin wax in the form of fins.

These coppers fins were welded with copper pipes in which water is flow inside it during the discharge process.

The effect of fins and perforated fins with three different size of diameters (2, 3 and 4 mm), on the heat transfer of PCM during melting process has been investigated to selecting the optimum among them.

The results obtained indicate that inserting copper strips mainly rises heat transfer by conduction inside PCM and decreases the time of melting by about, 16% due to high thermal conductivity of this strips and the smooth fins are more useful than perforated fins for improving the thermal properties of paraffin wax and the rate of heat transfer.

It is also found that the increase in the diameter of the perforations led to decrease the thermal performance of the This work includes design, manufacture and improvement of a Waste Heat Recovery System (WHRS) for thermal energy storage unit by using PCM technique.

Paraffin wax produced by Al- Durra refinery (major Iraqi oil company) has been used as a phase change material for this purpose.

The heat transfer enhancement has been investigated experimentally and numerically by using perforated and smooth copper strips which inserted within paraffin wax in the form of fins.

These coppers fins were welded with copper pipes in which water is flow inside it during the discharge process.

The effect of fins and perforated fins with three different size of diameters (2, 3 and 4 mm), on the heat transfer of PCM during melting process has been investigated to selecting the optimum among them.

The results obtained indicate that inserting copper strips mainly rises heat transfer by conduction inside PCM and decreases the time of melting by about, 16% due to high thermal conductivity of this strips and the smooth fins are more useful than perforated fins for improving the thermal properties of paraffin wax and the rate of heat transfer.

It is also found that the increase in the diameter of the perforations led to decrease the thermal performance of the fins.

American Psychological Association (APA)

Zaidan, Maitham Jamil& al-Hamdu, Muhammad Hamid. 2019. Effect of perforated and smooth fins on thermal performance of a latent heat energy system. Journal of Engineering and Sustainable Development،Vol. 23, no. 6, pp.109-127.
https://search.emarefa.net/detail/BIM-1114109

Modern Language Association (MLA)

Zaidan, Maitham Jamil& al-Hamdu, Muhammad Hamid. Effect of perforated and smooth fins on thermal performance of a latent heat energy system. Journal of Engineering and Sustainable Development Vol. 23, no. 6 (Nov. 2019), pp.109-127.
https://search.emarefa.net/detail/BIM-1114109

American Medical Association (AMA)

Zaidan, Maitham Jamil& al-Hamdu, Muhammad Hamid. Effect of perforated and smooth fins on thermal performance of a latent heat energy system. Journal of Engineering and Sustainable Development. 2019. Vol. 23, no. 6, pp.109-127.
https://search.emarefa.net/detail/BIM-1114109

Data Type

Journal Articles

Language

English

Notes

-

Record ID

BIM-1114109