Liquid phase silylation of Shipley SPR500A-series resists using top surface imaging

K. Arshak, M. Mihov, A. Arshak, D. McDonagh, D. Sutton, S. Newcomb
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引用次数: 0

Abstract

Top Surface Imaging (TSI) is a well established technique to improve resolution of optical lithography, deep UV (248 nm) lithography and 193 nm lithography. The Positive Resist Image by Dry Etching (PRIME) process is a high-resolution single layer lithography scheme incorporating electron-beam exposure, near UV exposure (365 nm), silylation and dry development. In this paper, the liquid-phase silylation process step in PRIME with Shipley SPR500A-series resists is experimentally, investigated, and a new efficient process has been developed The impact of different silylating agents is characterised using FT-IR spectroscopy SIM spectrometry and cross-sectional SEM and TEM. Liquid-phase silylated patterns of SPR505 and SPR510 resist are presented, indicating almost vertical silylation sidewall profiles and high-silylation contrast when using Hexamethylcyclotrisiloxane (HMCTS) silylating agents. Results show that in case of e-beam exposure, a dose of 50 C/cm/sup 2/ at 30 keV is efficient to crosslink the resist and prevent silylation.
采用顶面成像的Shipley spr500a系列抗蚀剂液相硅基化
顶面成像(TSI)是一种成熟的提高光学光刻、深紫外(248 nm)光刻和193 nm光刻分辨率的技术。干法蚀刻正抗蚀成像(PRIME)工艺是一种高分辨率单层光刻方案,结合了电子束曝光、近紫外曝光(365 nm)、硅基化和干显影。本文对Shipley spr500a系列抗蚀剂在PRIME中的液相硅烷化过程进行了实验研究,开发了一种新的高效工艺,并利用FT-IR光谱、SIM光谱、SEM和TEM表征了不同硅烷化剂对PRIME的影响。SPR505和SPR510抗蚀剂的液相硅基化模式表明,当使用六甲基环三硅氧烷(HMCTS)硅基化剂时,它们的硅基化侧壁几乎是垂直的,硅基化程度很高。结果表明,在电子束照射下,50℃/cm/sup / / 30 keV的剂量可以有效地交联抗蚀剂,防止硅基化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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