Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic

The demand for light emitting diodes (LED) has risen significantly due to their advantages over fluorescent and incandescent light bulbs. LED lighting has low-power consumption, long-life, and ecologically friendly technology. Additionally, they are significantly more efficient, converting most ener...

Full description

Saved in:
Bibliographic Details
Main Author: Ibrahim, Muhammad Fauzan
Format: Monograph
Language:English
Published: Universiti Sains Malaysia 2021
Subjects:
Online Access:http://eprints.usm.my/54542/1/Encapsulation%20Of%20Multiple%20Chips%20Led%20Module%20Using%20Computational%20Fluid%20Dynamic.pdf
http://eprints.usm.my/54542/
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: Universiti Sains Malaysia
Language: English
id my.usm.eprints.54542
record_format eprints
spelling my.usm.eprints.54542 http://eprints.usm.my/54542/ Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic Ibrahim, Muhammad Fauzan T Technology The demand for light emitting diodes (LED) has risen significantly due to their advantages over fluorescent and incandescent light bulbs. LED lighting has low-power consumption, long-life, and ecologically friendly technology. Additionally, they are significantly more efficient, converting most energy to light and thus emitting less heat. A polymeric material that acts as a nonconductive material fills the space between the lens and the LED chip. Encapsulation is used to protect the device from mechanical forces that could weaken the connection. This research aimed to conduct a computational fluid dynamics simulation of the filling process for polymeric materials. According to rheology models, the viscosity affects this dispensing application. Hence, the effect of three different encapsulant materials with varying viscosities was investigated. The shape and motion of the encapsulant materials are predicted using ANSYS FLUENT's volume of fluid (VOF) multiphase modeling. The simulation result will be compared to previous research on LED encapsulation. As a result, the filling volume tends to overfill as the viscosity increases. Additionally, high viscosity materials have a higher void content than low viscosity materials. Additionally, it requires a longer filling time to accommodate the high viscosity material used in the encapsulation process. Universiti Sains Malaysia 2021-07-01 Monograph NonPeerReviewed application/pdf en http://eprints.usm.my/54542/1/Encapsulation%20Of%20Multiple%20Chips%20Led%20Module%20Using%20Computational%20Fluid%20Dynamic.pdf Ibrahim, Muhammad Fauzan (2021) Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic. Project Report. Universiti Sains Malaysia, Pusat Pengajian Kejuruteraan Aeroangkasa. (Submitted)
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
Ibrahim, Muhammad Fauzan
Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic
description The demand for light emitting diodes (LED) has risen significantly due to their advantages over fluorescent and incandescent light bulbs. LED lighting has low-power consumption, long-life, and ecologically friendly technology. Additionally, they are significantly more efficient, converting most energy to light and thus emitting less heat. A polymeric material that acts as a nonconductive material fills the space between the lens and the LED chip. Encapsulation is used to protect the device from mechanical forces that could weaken the connection. This research aimed to conduct a computational fluid dynamics simulation of the filling process for polymeric materials. According to rheology models, the viscosity affects this dispensing application. Hence, the effect of three different encapsulant materials with varying viscosities was investigated. The shape and motion of the encapsulant materials are predicted using ANSYS FLUENT's volume of fluid (VOF) multiphase modeling. The simulation result will be compared to previous research on LED encapsulation. As a result, the filling volume tends to overfill as the viscosity increases. Additionally, high viscosity materials have a higher void content than low viscosity materials. Additionally, it requires a longer filling time to accommodate the high viscosity material used in the encapsulation process.
format Monograph
author Ibrahim, Muhammad Fauzan
author_facet Ibrahim, Muhammad Fauzan
author_sort Ibrahim, Muhammad Fauzan
title Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic
title_short Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic
title_full Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic
title_fullStr Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic
title_full_unstemmed Encapsulation Of Multiple Chips Led Module Using Computational Fluid Dynamic
title_sort encapsulation of multiple chips led module using computational fluid dynamic
publisher Universiti Sains Malaysia
publishDate 2021
url http://eprints.usm.my/54542/1/Encapsulation%20Of%20Multiple%20Chips%20Led%20Module%20Using%20Computational%20Fluid%20Dynamic.pdf
http://eprints.usm.my/54542/
_version_ 1744354438263341056