Application of a wafer development process to mask making

被引:7
|
作者
Lee, G [1 ]
Berger, C [1 ]
Bürgel, C [1 ]
Feicke, A [1 ]
Cantrell, R [1 ]
Tschinkl, M [1 ]
机构
[1] Adv Mask Technol Ctr GmbH & Co KG, D-01109 Dresden, Germany
关键词
photomask; LD nozzle; SH nozzle; develop; puddle process; CD uniformity; local loading; E-beam CAR;
D O I
10.1117/12.617104
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
Recently, the design of integrated circuits has become more and more complicated due to higher circuit densities. In particular for logic applications, the design is no longer uniform but combines different kinds of circuits into one mask layout resulting in stringent criteria for both wafer and photomask manufacturing. Photomask CD uniformity control and defectivity are two key criteria in manufacturing today's high-end reticles, and they are both strongly impacted by the mask developing process. A new photomask develop tool (ACT-M) designed by Tokyo Electron Limited (TEL) has been installed at the Advanced Mask Technology Center (AMTC) in Dresden, Germany. This ACT-M develop tool is equipped with a standard NLD nozzle as well as an SH nozzle which are both widely used in wafer developing applications. The AMTC and TEL used the ACT-M develop tool to adapt wafer puddle develop technology to photomask manufacturing, in an attempt to capture the same optimum CD control enjoyed by the wafer industry. In this study we used the ACT-M develop tool to examine CD uniformity, local loading and defect control on P-CAR and N-CAR photomasks exposed with 50keV e-beam pattern generators. Results with both nozzle types are reported. CD uniformity, loading, and defectivity results were sufficient to meet 65-nm technology node requirements with these nozzles and tailored made develop recipes for photomask processing.
引用
收藏
页码:445 / 453
页数:9
相关论文
共 50 条
  • [1] Mask specification for wafer process optimization
    Chen, Lin
    Freiberger, Phil
    Farnsworth, Jeff
    Stritsman, Ruth
    Rodrigues, Richard P.
    [J]. PHOTOMASK TECHNOLOGY 2006, PTS 1 AND 2, 2006, 6349
  • [2] The development of mask-making process for CLM manufacturing technology
    Park, JH
    Chung, DH
    Lee, MK
    Shin, IK
    Choi, SW
    Yoon, HS
    Sohn, JM
    Chen, F
    Van Den Broeke, D
    [J]. PHOTOMASK AND NEXT-GENERATION LITHOGRAPHY MASK TECHNOLOGY IX, 2002, 4754 : 727 - 736
  • [3] Multiple Beam Technology Development & Application for Defect Inspection on EUV wafer/Mask
    Ma, Eric
    Chou, Kevin
    Liu, Xuedong
    Ren, Weiming
    Hu, Xuerang
    Wang, Fei
    [J]. PHOTOMASK TECHNOLOGY 2018, 2018, 10810
  • [4] PROCESS ANALYSIS OF MASK MAKING
    LEVINE, JE
    [J]. SOLID STATE TECHNOLOGY, 1968, 11 (07) : 34 - &
  • [5] Development of low damage mask making process on EUV mask with thin CrN buffer layer
    Kureishi, M
    Ohkubo, R
    Hosoya, M
    Shoki, T
    Sakaya, N
    Kobayashi, H
    Nozawa, O
    Usui, Y
    Nagarekawa, O
    [J]. Emerging Lithographic Technologies IX, Pts 1 and 2, 2005, 5751 : 158 - 167
  • [6] SOI wafer flow process for stencil mask fabrication
    Butschke, J
    Ehrmann, A
    Höfflinger, B
    Irmscher, M
    Käsmaier, R
    Letzkus, F
    Löschner, H
    Mathuni, J
    Reuter, C
    Schomburg, C
    Springer, R
    [J]. MICROELECTRONIC ENGINEERING, 1999, 46 (1-4) : 473 - 476
  • [7] An advanced modeling approach for mask and wafer process simulation
    Karakas, Ahmet
    Elsen, Erich
    Torunoglu, Ilhami
    Andrus, Curtis
    [J]. PHOTOMASK TECHNOLOGY 2010, 2010, 7823
  • [8] The use of Silicon-versus-Layout verification (SiVL) in process control of wafer lithography and mask making metrology
    van Adrichem, PJM
    Driessen, FAJM
    van Hasselt, K
    [J]. METROLOGY, INSPECTION, AND PROCESS CONTROL FOR MICROLITHOGRAPHY XVII, PTS 1 AND 2, 2003, 5038 : 1019 - 1025
  • [9] THE PROCESS OF MAKING AND THE IMPORTANCE OF THE EKPO MASK
    OFFIONG, DA
    [J]. ANTHROPOLOGICA, 1982, 24 (02) : 193 - 206
  • [10] A FULLY DRIED MASK MAKING PROCESS
    YAMAZAKI, T
    SUZUKI, Y
    TANAKA, K
    NAKATA, H
    [J]. JOURNAL OF THE ELECTROCHEMICAL SOCIETY, 1981, 128 (03) : C104 - C104