Evaluating wafer inspection and cleaning with standard particles

被引:0
|
作者
Liu, Benjamin Y.H. [1 ,5 ,6 ]
Yoo, Seong-Ho [1 ,7 ]
Chae, Seung-Ki [1 ,2 ,8 ,9 ]
Sun, James J. [3 ,10 ,11 ]
Christenson, Kurt [4 ,12 ,13 ]
Butterbaugh, Jeffery [1 ,4 ,14 ]
Weygand, James F. [1 ,4 ,15 ]
Narayanswami, Natraj [4 ,16 ,17 ]
机构
[1] University of Minnesota
[2] Samsung Electronics, Korea, Republic of
[3] MSP Corp.
[4] FSI International
[5] Department of Mechanical Engineering, University of Minnesota
[6] National Academy of Engineering
[7] Korea University
[8] Seoul National University
[9] Semiconduct. Mfg. Technology Center, Korea, Republic of
[10] Semiconduct. and Indust. Prod. Group, MSP Corp.
[11] Zhejiang University, China
[12] Bethel College, St. Paul, MN, United States
[13] University of Illinois, Urbana, IL, United States
[14] Massachusetts Inst. of Technology
[15] Polytechnic Institute of Brooklyn
[16] Institute of Technology, Banaras Hindu University, India
[17] Rutgers University
关键词
Cleaning - Contamination - Copper - Deposition - Inspection - Latexes - Particle size analysis - Polystyrenes - Refractive index - Semiconducting silicon compounds - Silica - Silicon wafers;
D O I
暂无
中图分类号
学科分类号
摘要
To study the response of a wafer surface scanner and perform cleaning system evaluation, a process particle deposition system was used to deposit polystyrene latex (PSL) spheres and real-world process particles of Si, SiO2, W and Cu on wafers. It was found that the scanner response is affected by the particle refractive index. The measured cleaning efficiency was found to be dependent on particle material.
引用
收藏
页码:145 / 146
相关论文
共 50 条
  • [31] Robust Image Wafer Inspection
    Barone, Massimiliano
    2020 TENTH INTERNATIONAL CONFERENCE ON IMAGE PROCESSING THEORY, TOOLS AND APPLICATIONS (IPTA), 2020,
  • [32] Inspection of silicon wafer backsurfaces
    Schmolke, R
    Passek, F
    Gerber, HA
    Lambert, U
    Puppe, G
    Piontek, H
    Wagner, P
    PROCEEDINGS OF THE SYMPOSIUM ON CRYSTALLINE DEFECTS AND CONTAMINATION: THEIR IMPACT AND CONTROL IN DEVICE MANUFACTURING II, 1997, 97 (22): : 448 - 457
  • [33] Wafer bump inspection system
    Anon
    Semiconductor International, 2001, 24 (06)
  • [34] Ionic contamination of the silicon wafer from wafer cleaning process
    Omoregie, HO
    Buffat, SJ
    Sinha, D
    CLEANING TECHNOLOGY IN SEMICONDUCTOR DEVICE MANUFACTURING VII, PROCEEDINGS, 2002, 2002 (26): : 135 - 143
  • [35] Inspection of ultra fine particles on the Si wafer surface using a laser light scattering method
    Inoue, Haruyuki
    Kataoka, Toshihiko
    Endo, Katsuyoshi
    Oshikane, Yasushi
    Mori, Yuzo
    Nakano, Motohiro
    An, Hiroshi
    Takemura, Taichi
    Wada, Katuo
    2002, Japan Society for Precision Engineering (68):
  • [36] Wafer backside cleaning by twin-fluid flow cleaning
    Tatehaba, Y
    Kitagawa, K
    Shimada, K
    Ando, E
    SOLID STATE PHENOMENA, 1999, 65-6 : 183 - 186
  • [37] Wafer backside cleaning by twin-fluid flow cleaning
    SPC Electronics Corp, Tokyo, Japan
    Diffus Def Data Pt B, (183-186):
  • [38] A benchmark investigation on cleaning photomasks using wafer cleaning technologies
    Kindt, L
    Burnham, J
    Marmillion, P
    24TH ANNUAL BACUS SYMPOSIUM ON PHOTOMASK TECHNOLOGY, PT 1 AND 2, 2004, 5567 : 1044 - 1055
  • [39] Ozonated cleaning: An environmental friendly alternative to wet wafer cleaning
    Pandey, AK
    Shree, J
    Sethi, VC
    Sai, KSK
    ELECTRONICS INFORMATION & PLANNING, 2001, 28 (10-11): : 301 - 309
  • [40] MEGASONIC CLEANING - A COMPARATIVE-EVALUATION OF WAFER CLEANING SOLUTIONS
    MENON, VB
    MICHAELS, LD
    CLAYTON, AC
    DONOVAN, RP
    1989 PROCEEDINGS :: 35TH ANNUAL TECHNICAL MEETING - BUILDING TOMORROWS ENVIRONMENT, 1989, : 320 - 324