The study on the fabrication of gaphene thermal compound
碩士 === 東南科技大學 === 機械工程研究所 === 102 === This study used the graphene with base oils and successful production of graphene thermal compound, and constructed a good thermal detector for measuring the thermal resistance of thermal paste. After experiments, the produced graphene thermal compound is inde...
Main Authors: | , |
---|---|
Other Authors: | |
Format: | Others |
Language: | zh-TW |
Published: |
2014
|
Online Access: | http://ndltd.ncl.edu.tw/handle/59148506017282380549 |
id |
ndltd-TW-102TNIO0490012 |
---|---|
record_format |
oai_dc |
spelling |
ndltd-TW-102TNIO04900122017-01-14T04:15:15Z http://ndltd.ncl.edu.tw/handle/59148506017282380549 The study on the fabrication of gaphene thermal compound 石墨烯導熱膏之製作與研究 CHIH-WEI WANG 王志瑋 碩士 東南科技大學 機械工程研究所 102 This study used the graphene with base oils and successful production of graphene thermal compound, and constructed a good thermal detector for measuring the thermal resistance of thermal paste. After experiments, the produced graphene thermal compound is indeed quite excellent thermal effect, its effectiveness and stability are inferior to the commercially available thermal compound product, the highest thermal conductivity up to 7.369 W / mK. The study also found that the following phenomenon: the appropriate concentration of graphene thermal compound is the weight percentage of 30%, while increasing the amount of content is too low, thermal conductivity is not obvious; when the content is too high, but lower thermal conductivity. Importing sonication in the production process of the thermal compound, can effectively disperse the oil and basic materials, and increase the uniformity of thermal compound and increase the thermal conductivity. In the base oil, the olive oil has a better compatibility with graphene than PDMS, which enhance the thermal conductivity of 16%. In the dispersant, the use of isopropyl alcohol than the thermal conductivity improved by 31%. Therefore, graphene dispersion directly affects the heat conduction effect. Also proposed is different from the commercially available thermal compound, this research process is quite simple, just a few steps that can make a very high thermal conductivity thermal compound, so this study should have good thermal compound technical contribution. Jen-Ching Huang 黃仁清 2014 學位論文 ; thesis 71 zh-TW |
collection |
NDLTD |
language |
zh-TW |
format |
Others
|
sources |
NDLTD |
description |
碩士 === 東南科技大學 === 機械工程研究所 === 102 === This study used the graphene with base oils and successful production of graphene thermal compound, and constructed a good thermal detector for measuring the thermal resistance of thermal paste. After experiments, the produced graphene thermal compound is indeed quite excellent thermal effect, its effectiveness and stability are inferior to the commercially available thermal compound product, the highest thermal conductivity up to 7.369 W / mK.
The study also found that the following phenomenon: the appropriate concentration of graphene thermal compound is the weight percentage of 30%, while increasing the amount of content is too low, thermal conductivity is not obvious; when the content is too high, but lower thermal conductivity. Importing sonication in the production process of the thermal compound, can effectively disperse the oil and basic materials, and increase the uniformity of thermal compound and increase the thermal conductivity. In the base oil, the olive oil has a better compatibility with graphene than PDMS, which enhance the thermal conductivity of 16%. In the dispersant, the use of isopropyl alcohol than the thermal conductivity improved by 31%. Therefore, graphene dispersion directly affects the heat conduction effect. Also proposed is different from the commercially available thermal compound, this research process is quite simple, just a few steps that can make a very high thermal conductivity thermal compound, so this study should have good thermal compound technical contribution.
|
author2 |
Jen-Ching Huang |
author_facet |
Jen-Ching Huang CHIH-WEI WANG 王志瑋 |
author |
CHIH-WEI WANG 王志瑋 |
spellingShingle |
CHIH-WEI WANG 王志瑋 The study on the fabrication of gaphene thermal compound |
author_sort |
CHIH-WEI WANG |
title |
The study on the fabrication of gaphene thermal compound |
title_short |
The study on the fabrication of gaphene thermal compound |
title_full |
The study on the fabrication of gaphene thermal compound |
title_fullStr |
The study on the fabrication of gaphene thermal compound |
title_full_unstemmed |
The study on the fabrication of gaphene thermal compound |
title_sort |
study on the fabrication of gaphene thermal compound |
publishDate |
2014 |
url |
http://ndltd.ncl.edu.tw/handle/59148506017282380549 |
work_keys_str_mv |
AT chihweiwang thestudyonthefabricationofgaphenethermalcompound AT wángzhìwěi thestudyonthefabricationofgaphenethermalcompound AT chihweiwang shímòxīdǎorègāozhīzhìzuòyǔyánjiū AT wángzhìwěi shímòxīdǎorègāozhīzhìzuòyǔyánjiū AT chihweiwang studyonthefabricationofgaphenethermalcompound AT wángzhìwěi studyonthefabricationofgaphenethermalcompound |
_version_ |
1718408268554960896 |