Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film

碩士 === 國立中央大學 === 化學工程與材料工程研究所 === 94 === There are two major topics in my research. One is the research of electron-beam lithography proximity effect correction. The other one is anti-reflectance coating. Integrated circuit (IC) technology has been advanced significantly over the last 40 years. T...

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Main Authors: Sheng-Jung Hung, 洪聖宗
Other Authors: Cheng-Tung Chou
Format: Others
Language:zh-TW
Published: 2006
Online Access:http://ndltd.ncl.edu.tw/handle/08075334784736849943
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spelling ndltd-TW-094NCU050630592015-10-13T16:31:38Z http://ndltd.ncl.edu.tw/handle/08075334784736849943 Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film 電子束微影鄰近效應修正與BA-mBenzoxazinefilm製備抗反射層 Sheng-Jung Hung 洪聖宗 碩士 國立中央大學 化學工程與材料工程研究所 94 There are two major topics in my research. One is the research of electron-beam lithography proximity effect correction. The other one is anti-reflectance coating. Integrated circuit (IC) technology has been advanced significantly over the last 40 years. The steady progress is critically dependent on the development of optical lithography. However, optical lithography is now facing a number of challenges for generating extremely fine patterns. In addition to the optical solution, electron beam lithography is one of the promising alternatives for high-resolution patterning. In this thesis, we study and address the proximity effect that is an important issue in e-beam lithography. The first subject is e-beam lithography proximity effect correction and we introduce the experimental approach to discuss it. By fitting the experimental results base on the double Gaussian model, it gives the α, β and η scattering parameters. We build a transfer layer to transfer the patterns on the silicon wafer, and reduce the proximity effect parameters plus dose correction to give the accurate pattern design. The reflectance of the surface plays an important role to all semi-conduct devices that drive by incident light as well as solar cell. For this reason, we must use the anti-reflection layer to increase the penetration of the incident light at the cell surface. The secondary subject is coating polymer on the wafer and then deal with surface by plasma. We use AFM and SEM to see the top view for researching in the reduction of reflection. Cheng-Tung Chou Chun-Hung Lin 周正堂 林俊宏 2006 學位論文 ; thesis 106 zh-TW
collection NDLTD
language zh-TW
format Others
sources NDLTD
description 碩士 === 國立中央大學 === 化學工程與材料工程研究所 === 94 === There are two major topics in my research. One is the research of electron-beam lithography proximity effect correction. The other one is anti-reflectance coating. Integrated circuit (IC) technology has been advanced significantly over the last 40 years. The steady progress is critically dependent on the development of optical lithography. However, optical lithography is now facing a number of challenges for generating extremely fine patterns. In addition to the optical solution, electron beam lithography is one of the promising alternatives for high-resolution patterning. In this thesis, we study and address the proximity effect that is an important issue in e-beam lithography. The first subject is e-beam lithography proximity effect correction and we introduce the experimental approach to discuss it. By fitting the experimental results base on the double Gaussian model, it gives the α, β and η scattering parameters. We build a transfer layer to transfer the patterns on the silicon wafer, and reduce the proximity effect parameters plus dose correction to give the accurate pattern design. The reflectance of the surface plays an important role to all semi-conduct devices that drive by incident light as well as solar cell. For this reason, we must use the anti-reflection layer to increase the penetration of the incident light at the cell surface. The secondary subject is coating polymer on the wafer and then deal with surface by plasma. We use AFM and SEM to see the top view for researching in the reduction of reflection.
author2 Cheng-Tung Chou
author_facet Cheng-Tung Chou
Sheng-Jung Hung
洪聖宗
author Sheng-Jung Hung
洪聖宗
spellingShingle Sheng-Jung Hung
洪聖宗
Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film
author_sort Sheng-Jung Hung
title Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film
title_short Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film
title_full Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film
title_fullStr Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film
title_full_unstemmed Electron-beam Lithography Proximity Effect Correction and Fabrication of Anti-reflection Coating with BA-m Benzoxazine film
title_sort electron-beam lithography proximity effect correction and fabrication of anti-reflection coating with ba-m benzoxazine film
publishDate 2006
url http://ndltd.ncl.edu.tw/handle/08075334784736849943
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