Distributed optical proximity correction with deep-learning lithographic model for i-line photolithography
Wei Ping Liao, Yu Fan Lin, Hsueh Li Liu, Shu De Gong Gong, Peichen Yu, You-Chia Chang, Jia Min Shieh, Chun Chi Chen, Wen Hsien Huang
Abstract
Wei Ping Liao, Yu Fan Lin, Hsueh Li Liu, Shu De Gong Gong, Peichen Yu, You-Chia Chang, Jia Min Shieh, Chun Chi Chen, Wen Hsien Huang
Abstract
In this study, we propose a deep-learning approach to establish the lithographic model for i-line photolithography and develop an optical proximity correction (OPC) algorithm to increase the resolution limit. The applications of RETs are not only on CMOS semiconductor, but also on some metasurface which used to patterning by electron beam lithography. With the OPC algorithm, we are able to manufacture a near-infrared metalens patterning by i-line photolithography in a more efficient and less expensive way.
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In this study, we propose a deep-learning approach to establish the lithographic model for i-line photolithography and develop an optical proximity correction (OPC) algorithm to increase the resolution limit. The applications of RETs are not only on CMOS semiconductor, but also on some metasurface which used to patterning by electron beam lithography. With the OPC algorithm, we are able to manufacture a near-infrared metalens patterning by i-line photolithography in a more efficient and less expensive way.
Key concepts: Photolithography, Computational lithography, Lithography, Electron-beam lithography, Extreme ultraviolet lithography, Next-generation lithography, Optical proximity correction, Line (geometry)