Fabrication of fine pitch gratings by holography, electron beam lithography and nano-imprint lithography

被引:1
|
作者
Goodchild, Darren [1 ]
Bogdanov, Alexei [1 ]
Wingar, Simon [1 ]
Benyon, Bill [1 ]
Kim, Nak [1 ]
Shepherd, Frank [1 ]
机构
[1] Natl Res Council Canada, Canadian Photon Fabricat Ctr, 1200 Montreal Rd, Ottawa, ON K1A OR6, Canada
关键词
grating; holography; electron beam lithography; nano-imprint lithography; photoresist; E-beam resist;
D O I
10.1117/12.712212
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
Fine pitch gratings (200 mn - 240 nm) are required for a variety of devices such as optical filters, semiconductor lasers and sensors for bio-medical applications. Various lithographic techniques are commercially available for fabricating gratings, with the choice depending on the type of grating required, cost and volume of manufacture. It is possible to use state of the art high-resolution projection steppers, common to silicon device manufacturing, for half pitch gratings down to 65 mn, but for much smaller volume manufacturing of photonic devices these tools have a prohibitive cost of ownership. Thus, remaining techniques for sub 120 mn half pitch gratings are holography, electron beam lithography, and nano-imprint lithography. In this paper we compare, characterize, and discuss the practical application of these three methods. Examples of gratings fabricated at the Canadian Photonics Fabrication Centre (CPFC) are shown as well as some application examples.
引用
收藏
页数:8
相关论文
共 50 条
  • [1] Electrical nano-imprint lithography
    Ressier, L.
    Palleau, E.
    Behar, S.
    NANOTECHNOLOGY, 2012, 23 (25)
  • [2] Application of nano-imprint lithography
    Hirai, Y
    Tanaka, Y
    JOURNAL OF PHOTOPOLYMER SCIENCE AND TECHNOLOGY, 2002, 15 (03) : 475 - 480
  • [3] Shaped beam technology for nano-imprint mask lithography
    Hudek, P
    Beyer, D
    Groves, TR
    Fortagne, O
    Dauksher, WJ
    Mancini, D
    Nordquist, K
    Resnick, DJ
    20TH EUROPEAN CONFERENCE ON MASK TECHNOLOGY FOR INTEGRATED CIRCUITS AND MICROCOMPONENTS, 2004, 5504 : 204 - 208
  • [4] Aluminum quantum dots fabrication by nano-imprint lithography
    Hirai, Y
    Yoshida, S
    Okuno, H
    Fujiwara, M
    Tanaka, Y
    MICROPROCESSES AND NANOTECHNOLOGY 2000, DIGEST OF PAPERS, 2000, : 292 - 293
  • [5] Improvement of Nano-imprint Lithography performance for device fabrication
    Kono, Takuya
    Hatano, Masayuki
    Tokue, Hiroshi
    Kobayashi, Kei
    Kato, Hirokazu
    Suzuki, Masato
    Fukuhara, Kazuya
    Nakasugi, Tetsuro
    Choi, Eun Hyuk
    Jung, Wooyung
    NOVEL PATTERNING TECHNOLOGIES 2018, 2018, 10584
  • [6] Eliminating the undercut phenomenon in interference lithography for the fabrication of nano-imprint lithography stamp
    Jang, Hwan Soo
    Kim, Gee Hong
    Lee, Jaejong
    Choi, Kee Bong
    CURRENT APPLIED PHYSICS, 2010, 10 (06) : 1436 - 1441
  • [7] Fabrication of superconducting NbN meander nanowires by nano-imprint lithography
    Yang, Mei
    Liu, Li-Hua
    Ning, Lu-Hui
    Jin, Yi-Rong
    Deng, Hui
    Li, Jie
    Li, Yang
    Zheng, Dong-Ning
    CHINESE PHYSICS B, 2016, 25 (01)
  • [8] Nano-imprint molding resists for lithography
    Schift, H
    Park, S
    Gobrecht, J
    JOURNAL OF PHOTOPOLYMER SCIENCE AND TECHNOLOGY, 2003, 16 (03) : 435 - 438
  • [9] Fabrication of superconducting Nb N meander nanowires by nano-imprint lithography
    杨美
    刘丽华
    宁鲁慧
    金贻荣
    邓辉
    李洁
    李阳
    郑东宁
    Chinese Physics B, 2016, 25 (01) : 388 - 393
  • [10] Negative e-beam resists using for nano-imprint lithography and silicone mold fabrication
    Kumar, Anil T., V
    Shy, S. L.
    Sheu, Gene
    Yang, Shao-Ming
    Chen, M. C.
    Hong, C. S.
    ALTERNATIVE LITHOGRAPHIC TECHNOLOGIES VII, 2015, 9423