Bottom Anti-reflective Coating for Hyper NA Process: Theory, Application and Material Development

被引:1
|
作者
Yao, Huirong [1 ]
Cho, Joonyeon [1 ]
Yin, Jian [1 ]
Mullen, Salem [1 ]
Lin, Guanyang [1 ]
Neisser, Mark [1 ]
Dammel, Ralph [1 ]
机构
[1] AZ Elect Mat US Corp, Somerville, NJ 08876 USA
来源
LITHOGRAPHY ASIA 2008 | 2008年 / 7140卷
关键词
Photolithography; 193nm; Immersion Lithography; Bottom antireflective coating; BARC; refractive index; n and k; high n low k; simulation;
D O I
10.1117/12.804617
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
To obtain high resolution lithography in semiconductor industry for 45 nm node and beyond, 193 nm immersion lithography is a state-of-the-art technology. The hyper NA process in immersion technology requires unique design of bottom antireflective coating (BARC) materials to control reflectivity and improve lithography performance. Based on simulations, high n low k materials are suitable for BARC applications in hyper NA process. This paper describes the principle of the material development of high n low k BARC materials and its applications in hyper NA lithography process. The BARC material contains a dye with absorbance maximum lower than the exposure wavelength, e.g 170-190 nm. The enhancement of n values due to anomalous dispersion was illustrated by dispersion curves of new BARC materials. The relationship of the optical indices of BARC materials at 193 nm with the absorption properties of dyes was investigated. The novel high n low k materials have shown excellent lithography performances under dry and immersion conditions.
引用
收藏
页数:9
相关论文
共 50 条
  • [21] Design, Synthesis and Characterization of KrF Negative Developable Bottom Anti-Reflective Coating Materials
    Liu, Sen
    Chen, Kuang-Jung
    Huang, Wu-Song
    Holmes, Steven
    Huang, Karen
    Fender, Nicolette
    Kwong, Ranee
    Osborn, Brian
    Tang, Cherry
    Wu, Chung-Hsi
    Slezak, Mark
    ADVANCES IN RESIST MATERIALS AND PROCESSING TECHNOLOGY XXIX, 2012, 8325
  • [22] Investigation of the effects of bottom anti-reflective coating on nanoscale patterns by laser interference lithography
    Park, Eun-Mi
    Choi, Jinnil
    Kang, Byung Hyun
    Dong, Ki-Young
    Park, YunKwon
    Song, In Sang
    Ju, Byeong-Kwon
    THIN SOLID FILMS, 2011, 519 (13) : 4220 - 4224
  • [23] Implementation of organic bottom anti-reflective coating in 0.35 mu m polycide fabrication
    Ko, TM
    Fan, MH
    Cheng, A
    Yu, R
    MICROLITHOGRAPHIC TECHNIQUES IN IC FABRICATION, 1997, 3183 : 207 - 217
  • [24] The effects of the bottom anti-reflective coating with different baked temperatures and thicknesses on nanoscale patterns
    Zheng, Jie
    Li, Ling
    Chen, Weidong
    APPLIED SURFACE SCIENCE, 2015, 357 : 937 - 941
  • [25] Development of hard, anti-reflective coating for mid wave infrared region
    Ozhan, Alp Eren Sinan
    Hacaloglu, Tugce
    Kaftanoglu, Bilgin
    INFRARED PHYSICS & TECHNOLOGY, 2021, 119
  • [26] Cracking up Fragmentation of an anti-reflective coating
    Tandon, Rajan
    Shahin, David
    Swiler, Thomas P.
    MATERIALS TODAY, 2012, 15 (1-2) : 71 - 71
  • [27] 0.18 μm technology at contact level:: Deep UV process development by tuning NA/σ and using a bottom anti reflective coating
    Amblard, G
    Chollet, JP
    OPTICAL MICROLITHOGRAPHY XII, PTS 1 AND 2, 1999, 3679 : 976 - 989
  • [28] A Foam-Core Meniscus Coating Process for Retrofit Anti-Reflective Coatings
    Saranam, Venkata Rajesh
    Chang, Chih-Hung
    Paul, Brian K.
    JOURNAL OF MICRO AND NANO-MANUFACTURING, 2019, 7 (03):
  • [29] Bottom anti-reflective coatings: Control of thermal processing
    Schiltz, A
    Terpan, JF
    Brun, S
    Paniez, PJ
    MICROELECTRONIC ENGINEERING, 1996, 30 (1-4) : 283 - 286
  • [30] Bottom anti-reflective coating processing techniques for via-first dual damascene processes
    Brakensiek, NL
    OPTICAL MICROLITHOGRAPHY XV, PTS 1 AND 2, 2002, 4691 : 927 - 936