Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging

This thesis presents the thermal impact of thermal interface material 1 (TIM1) and heat spreader co-planarity to the flip chip package with heat spreader. The TIM1 material influences the efficiency of heat transfer from silicon die to the heat spreader while the co-planarity of heat spreader affect...

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Main Author: Pang, Shi Shiang
Format: Thesis
Language:English
Published: 2020
Subjects:
Online Access:http://eprints.usm.my/47762/1/Thermal%20Impact%20Of%20Thermal%20Interface%20Materials%20And%20Heat%20Spreader%20Co-Planarity%20Of%20The%20Electronic%20Packaging.pdf
http://eprints.usm.my/47762/
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spelling my.usm.eprints.47762 http://eprints.usm.my/47762/ Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging Pang, Shi Shiang T Technology This thesis presents the thermal impact of thermal interface material 1 (TIM1) and heat spreader co-planarity to the flip chip package with heat spreader. The TIM1 material influences the efficiency of heat transfer from silicon die to the heat spreader while the co-planarity of heat spreader affects the thermal performance of the flip chip package significantly, especially on the junction-to-case thermal resistance of the package. Numerical studies using ANSYS Icepak were conducted to investigate the thermal impact contributed by the TIM1 material properties and thermal degradation due to heat spreader co-planarity in either concave or convex with deflections up to 0.12 mm. The result indicated that the bond line thickness (BLT) and the thermal conductivity of the TIM1 material affected the thermal performance of the flip chip package. The result also showed that with concave deflection improved up to 44 % while convex deflection degraded up to 80 % of the junction-to-case thermal resistance of the flip chip package. The outcome of the study is to propose design guidelines and recommendations for TIM1 material selection and implementation. Higher thermal conductivity and lower the BLT of TIM1 material shall be selected for better thermal performance of the flip chip package. The findings also recommended the co-planarity tolerance for the heat spreader shall not be greater than 0.07 mm for a 60 mm x 60 mm flip chip package with a heat dissipation of 150 W. 2020-06-01 Thesis NonPeerReviewed application/pdf en http://eprints.usm.my/47762/1/Thermal%20Impact%20Of%20Thermal%20Interface%20Materials%20And%20Heat%20Spreader%20Co-Planarity%20Of%20The%20Electronic%20Packaging.pdf Pang, Shi Shiang (2020) Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging. Masters thesis, Universiti Sains Malaysia.
institution Universiti Sains Malaysia
building Hamzah Sendut Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Sains Malaysia
content_source USM Institutional Repository
url_provider http://eprints.usm.my/
language English
topic T Technology
spellingShingle T Technology
Pang, Shi Shiang
Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging
description This thesis presents the thermal impact of thermal interface material 1 (TIM1) and heat spreader co-planarity to the flip chip package with heat spreader. The TIM1 material influences the efficiency of heat transfer from silicon die to the heat spreader while the co-planarity of heat spreader affects the thermal performance of the flip chip package significantly, especially on the junction-to-case thermal resistance of the package. Numerical studies using ANSYS Icepak were conducted to investigate the thermal impact contributed by the TIM1 material properties and thermal degradation due to heat spreader co-planarity in either concave or convex with deflections up to 0.12 mm. The result indicated that the bond line thickness (BLT) and the thermal conductivity of the TIM1 material affected the thermal performance of the flip chip package. The result also showed that with concave deflection improved up to 44 % while convex deflection degraded up to 80 % of the junction-to-case thermal resistance of the flip chip package. The outcome of the study is to propose design guidelines and recommendations for TIM1 material selection and implementation. Higher thermal conductivity and lower the BLT of TIM1 material shall be selected for better thermal performance of the flip chip package. The findings also recommended the co-planarity tolerance for the heat spreader shall not be greater than 0.07 mm for a 60 mm x 60 mm flip chip package with a heat dissipation of 150 W.
format Thesis
author Pang, Shi Shiang
author_facet Pang, Shi Shiang
author_sort Pang, Shi Shiang
title Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging
title_short Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging
title_full Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging
title_fullStr Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging
title_full_unstemmed Thermal Impact Of Thermal Interface Materials And Heat Spreader Co-Planarity Of The Electronic Packaging
title_sort thermal impact of thermal interface materials and heat spreader co-planarity of the electronic packaging
publishDate 2020
url http://eprints.usm.my/47762/1/Thermal%20Impact%20Of%20Thermal%20Interface%20Materials%20And%20Heat%20Spreader%20Co-Planarity%20Of%20The%20Electronic%20Packaging.pdf
http://eprints.usm.my/47762/
_version_ 1717094496127156224
score 13.211869