Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates

碩士 === 國立臺灣科技大學 === 機械工程系 === 100 === Chemical mechanical planarization (CMP) has become a popular technology in semiconductor manufacturing process. Substrate of light emitted diode (LED) are usually planarized by the Machano-Chemical Polishing (MCP) proceed due to the solid-phase chemical passivat...

Full description

Bibliographic Details
Main Authors: Ping-Shen Chou, 周炳伸
Other Authors: Chao-Chang A. Chen
Format: Others
Language:zh-TW
Published: 2012
Online Access:http://ndltd.ncl.edu.tw/handle/j823u4
id ndltd-TW-100NTUS5489115
record_format oai_dc
spelling ndltd-TW-100NTUS54891152019-05-15T20:51:11Z http://ndltd.ncl.edu.tw/handle/j823u4 Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates 水解能量於可水解鋁酸鋰基板平坦化製程之研究 Ping-Shen Chou 周炳伸 碩士 國立臺灣科技大學 機械工程系 100 Chemical mechanical planarization (CMP) has become a popular technology in semiconductor manufacturing process. Substrate of light emitted diode (LED) are usually planarized by the Machano-Chemical Polishing (MCP) proceed due to the solid-phase chemical passivation between substrate material and abrasive grits. Since of the current low efficiency, thus this study is to develop a hybrid energy mechanism to assist in generating hydrolysis reacted layer on lithium aluminate (LAO) substrates. This Hybrid-Energy assisted Chemical Mechanical Planarization (HACMP) process achieves higher material removal rate and global planarization by such hydrolysis reaction and abrasive processing. Furthermore, the depth of sub-surface damage layer of LAO substrate before and after polishing process. Experimental results shows that the slurry with DI-water (DIW) to proceed the HACMP and achieve MRR increasing about 22% under the work temperature 80°C. The surface roughness is reduces as 20% and MRR can increased as 29% with adding 50% water concentration into slurry in the HACMP process. Thus, slurry comsumption can reduce upto 25% compare with the conventional polishing process. Results can be applied to further slurry analysis for LAO substrate and process optimization, especially for the LED substrate demands in the near future. Chao-Chang A. Chen 陳炤彰 2012 學位論文 ; thesis 192 zh-TW
collection NDLTD
language zh-TW
format Others
sources NDLTD
description 碩士 === 國立臺灣科技大學 === 機械工程系 === 100 === Chemical mechanical planarization (CMP) has become a popular technology in semiconductor manufacturing process. Substrate of light emitted diode (LED) are usually planarized by the Machano-Chemical Polishing (MCP) proceed due to the solid-phase chemical passivation between substrate material and abrasive grits. Since of the current low efficiency, thus this study is to develop a hybrid energy mechanism to assist in generating hydrolysis reacted layer on lithium aluminate (LAO) substrates. This Hybrid-Energy assisted Chemical Mechanical Planarization (HACMP) process achieves higher material removal rate and global planarization by such hydrolysis reaction and abrasive processing. Furthermore, the depth of sub-surface damage layer of LAO substrate before and after polishing process. Experimental results shows that the slurry with DI-water (DIW) to proceed the HACMP and achieve MRR increasing about 22% under the work temperature 80°C. The surface roughness is reduces as 20% and MRR can increased as 29% with adding 50% water concentration into slurry in the HACMP process. Thus, slurry comsumption can reduce upto 25% compare with the conventional polishing process. Results can be applied to further slurry analysis for LAO substrate and process optimization, especially for the LED substrate demands in the near future.
author2 Chao-Chang A. Chen
author_facet Chao-Chang A. Chen
Ping-Shen Chou
周炳伸
author Ping-Shen Chou
周炳伸
spellingShingle Ping-Shen Chou
周炳伸
Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates
author_sort Ping-Shen Chou
title Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates
title_short Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates
title_full Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates
title_fullStr Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates
title_full_unstemmed Research on Hybrid-Energy Assisted Planarization for Polishing of Hydrolysis LAO Substrates
title_sort research on hybrid-energy assisted planarization for polishing of hydrolysis lao substrates
publishDate 2012
url http://ndltd.ncl.edu.tw/handle/j823u4
work_keys_str_mv AT pingshenchou researchonhybridenergyassistedplanarizationforpolishingofhydrolysislaosubstrates
AT zhōubǐngshēn researchonhybridenergyassistedplanarizationforpolishingofhydrolysislaosubstrates
AT pingshenchou shuǐjiěnéngliàngyúkěshuǐjiělǚsuānlǐjībǎnpíngtǎnhuàzhìchéngzhīyánjiū
AT zhōubǐngshēn shuǐjiěnéngliàngyúkěshuǐjiělǚsuānlǐjībǎnpíngtǎnhuàzhìchéngzhīyánjiū
_version_ 1719104749195755520