Effect of Negative tone mask lithography on Lens aberration phenomena

被引:5
|
作者
Tsujita, K [1 ]
Yamauchi, Y [1 ]
Ueno, A [1 ]
Wakamiya, W [1 ]
Nishimura, T [1 ]
机构
[1] Mitsubishi Elect Corp, ULSI Dev Ctr, Itami, Hyogo 664, Japan
来源
关键词
D O I
10.1117/12.354350
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
In this paper, the method to decrease lens aberration phenomena is presented. The performance of mask tone (positive and negative) is compared experimentally and by simulation for actual conditions of 0.18um lithography. The stepper with some aberration was used with several modified illumination conditions. The effectiveness of negative tone lithography was confirmed experimentally. CD variations of sub-dense or isolated line (0.24 similar to 0.40um) patterns in intrafield are improved from about 30 similar to 40nm to 10 similar to 20nm for every illumination condition. For overlay, the placement error of isolate line patterns (0.20 similar to 1.00um) is improved from around 10nm to 5nm. By simulation, the phenomena are investigated for the same illumination conditions as experimental ones. It is proven that negative tone mask lithography is less sensitive to aberration rather than positive one, which corresponds to smaller intrafield CD and overlay variation errors. The reason why negative tone mask lithography is effective is investigated. From this study, it can be concluded that negative tone mask lithography is more robust for lens aberration phenomena than positive one for such pattern layer which consists mainly of sub-dense and isolated patterns as gate layer. In the viewpoint of production, with this method, even the stepper which has some aberration can get CD and overlay controllability to be suitable for 0.18um lithography.
引用
收藏
页码:382 / 393
页数:4
相关论文
共 50 条
  • [1] Glass homogeneity effect on wavefront aberration in lithography projection lens
    Shang, Hongbo
    Huang, Wei
    Liu, Chunlai
    Xu, Weicai
    Yang, Wang
    CHINESE OPTICS LETTERS, 2013, 11 (09)
  • [2] Active lens for thermal aberration compensation in lithography lens
    Zhao, Lei
    Dong, Lijian
    Yu, Xinfeng
    Li, Pengzhi
    Qiao, Yanfeng
    APPLIED OPTICS, 2018, 57 (29) : 8654 - 8663
  • [3] Built-in Lens Mask Lithography
    Ueda, Naoki
    Sasago, Masaru
    Misaka, Akio
    Kikuta, Hisao
    Kawata, Hiroaki
    Hirai, Yoshihiko
    OPTICAL MICROLITHOGRAPHY XXVII, 2014, 9052
  • [4] The thermal aberration analysis of a lithography projection lens
    Mao, Yanjie
    Li, Sikun
    Sun, Gang
    Wang, Jian
    Duan, Lifeng
    Bu, Yang
    Wang, Xiangzhao
    OPTICAL MICROLITHOGRAPHY XXX, 2017, 10147
  • [5] Generation of Lens surface by moving mask lithography
    Lee, Joon-Sub
    Park, Woo -Jae
    Song, Seok-Ho
    Oh, Cha-Hwan
    Kim, Pill -Soo
    KOREAN JOURNAL OF OPTICS AND PHOTONICS, 2005, 16 (06) : 508 - 515
  • [6] A QUADRUPOLE LENS WITH NEGATIVE CHROMATIC ABERRATION
    KELMAN, VM
    YAVOR, SY
    SOVIET PHYSICS-TECHNICAL PHYSICS, 1963, 8 (03): : 271 - &
  • [7] Mechanism of Embedded Micro/Nano Channel Formation for a Negative-tone Photoresist by Moving Mask Lithography
    Kim, Sang-Kon
    Oh, Hye-Keun
    Jung, Young-Dae
    An, Ilsin
    JOURNAL OF THE KOREAN PHYSICAL SOCIETY, 2010, 56 (03) : 851 - 855
  • [8] Built-in Lens Mask Lithography (Challenge for high definition lens-less lithography)
    Ueda, Naoki
    Sasago, Masaru
    Misaka, Akio
    Kikuta, Hisao
    Kawata, Hiroaki
    Hirai, Yoshihiko
    PHOTOMASK AND NEXT-GENERATION LITHOGRAPHY MASK TECHNOLOGY XXI, 2014, 9256
  • [9] Negative-tone resists for EUV lithography
    Suzuki, Masato
    Kim, Youngjin
    Her, Youngjun
    Wu, Hengpeng
    Si, Kun
    Maturi, Mark Marcello
    Fackler, Philipp Hans
    Moinpour, Mansour
    Dammel, Ralph
    Cao, Yi
    ADVANCES IN PATTERNING MATERIALS AND PROCESSES XL, 2023, 12498
  • [10] Competitiveness of negative tone resists for nanoimprint lithography
    Dhima, Khalid
    Steinberg, Christian
    Mayer, Andre
    Wang, Si
    Papenheim, Marc
    Scheer, Hella-Christin
    MICROELECTRONIC ENGINEERING, 2014, 123 : 43 - 47