3D IC Process Development for Enabling Chip-on-Chip and Chip on Wafer Multi-Stacking at Assembly

被引:0
|
作者
Daily, R. [1 ]
Capuz, G. [1 ]
Wang, T. [1 ]
Bex, P. [1 ]
Struyf, H. [1 ]
Sleeckx, E. [1 ]
Demeurisse, C. [1 ]
Attard, A. [2 ]
Eberharter, W. [2 ]
Klingler, H. [2 ]
机构
[1] IMEC, Kapeldreef 75, B-3001 Leuven, Belgium
[2] BESI Austria GmbH, A-6241 Radfeld, Austria
关键词
3D; stacking; temperature; UF; Thermocompression; Chip-on-Chip; Chip-on-Wafer; TCB;
D O I
暂无
中图分类号
TP3 [计算技术、计算机技术];
学科分类号
0812 ;
摘要
Along with the flow and the fundamental focus on 3D integration, is the study in enabling stacking as well as assessing the needs to make it comparable to current manufacturing standards. To do this we take a look on key essential elements of a manufacturing line and applying it to the stacking process. Key areas of focus is process stability, control and ability to reducing the bond parameters (time, temp and force). With this we take a look at the developments done to enable such a condition and allowing the gathering and analysis of relevant data for enabling chip-on-chip (CoC) and chip on-wafer (CoW) stacking in assembly production. CoC and CoW bonding is a stacking scheme in the 3D IC integration flow where diced top dies are bonded individually, using thermocompression bonding (TCB), directly over a whole bottom wafer or individual chips. These two methods have their advantages and disadvantages during assembly. One is to bond each chip only on another individual chips diced prior stacking, which is identified as CoC. Another is to place multiple chips in a single whole wafer then do the dicing afterwards. Both can be configured to adapt for multi-stacking. In this paper, we present the applicability of each process to actual production. We place side by side advantages and disadvantages for both methods with actual bond results. We also take a look on major parameters involved and innovative solutions used to address challenges. Coverage of this paper involves CoC and CoW stacking. Experiments are done on units using no-flow underfill (NUF) and wafer-level underfill (WLUF). The study covers learning's on the process development of die multi-stacking on 3D IC applications The paper will cover parameters, equipment and materials involved during the CoC and CoW bonding process. The goal of the paper is to show process development advances on 3D integration.
引用
收藏
页码:56 / 60
页数:5
相关论文
共 50 条
  • [31] Wide Bus Chip-to-Chip Interconnection Technology Using Fine Pitch Bump Joint Array for 3D LSI Chip Stacking
    Aoyagi, Masashiro
    Imura, Fumito
    Nemoto, Shunsuke
    Watanabe, Naoya
    Kato, Fumiki
    Kikuchi, Katsuya
    Nakagawa, Hiroshi
    Hagimoto, Michiya
    Uchida, Hiroyuki
    Matsumoto, Yukoh
    [J]. 2012 2ND IEEE CPMT SYMPOSIUM JAPAN, 2012,
  • [32] Process Development for 3D Integration: Conductive wafer bonding for high density inter-chip interconnection
    Song, Chongshen
    Zhang, Wenqi
    Shangguan, Dongkai
    [J]. 2014 4TH IEEE INTERNATIONAL WORKSHOP ON LOW TEMPERATURE BONDING FOR 3D INTEGRATION (LTB-3D), 2014, : 4 - 4
  • [33] Assembly process development of stacked multi-chip leadframe package
    Yao, YF
    Njoman, B
    Chua, KH
    [J]. 6TH ELECTRONICS PACKAGING TECHNOLOGY CONFERENCE, PROCEEDINGS (EPTC 2004), 2004, : 25 - 29
  • [34] Micro Cu bump interconnection on 3D chip stacking technology
    Tanida, K
    Umemoto, M
    Tanaka, N
    Tomita, Y
    Takahashi, K
    [J]. JAPANESE JOURNAL OF APPLIED PHYSICS PART 1-REGULAR PAPERS BRIEF COMMUNICATIONS & REVIEW PAPERS, 2004, 43 (4B): : 2264 - 2270
  • [35] Cu/Sn Microbumps Interconnect for 3D TSV Chip Stacking
    Agarwal, Rahul
    Zhang, Wenqi
    Limaye, Paresh
    Labie, Riet
    Dimcic, Biljana
    Phommahaxay, Alain
    Soussan, Philippe
    [J]. 2010 PROCEEDINGS 60TH ELECTRONIC COMPONENTS AND TECHNOLOGY CONFERENCE (ECTC), 2010, : 858 - 863
  • [36] Drop Impact Reliability Analysis of 3-D Chip-on-Chip Packaging: Numerical Modeling and Experimental Validation
    Cheng, Hsien-Chie
    Cheng, Hsin-Kai
    Lu, Su-Tsai
    Juang, Jing-Ye
    Chen, Wen-Hwa
    [J]. IEEE TRANSACTIONS ON DEVICE AND MATERIALS RELIABILITY, 2014, 14 (01) : 499 - 511
  • [37] Ultra-high-density 3D chip stacking technology
    Tanida, K
    Umemoto, M
    Tomita, Y
    Tago, M
    Nemoto, Y
    Ando, T
    Takahashi, K
    [J]. 53RD ELECTRONIC COMPONENTS & TECHNOLOGY CONFERENCE, 2003 PROCEEDINGS, 2003, : 1084 - 1089
  • [38] Ultrathin Die Pick-Up for 3D Chip Stacking
    Kawano, Masaya
    Hirota, Naoya
    Lim, Sharon Pei-Siang
    Chong, Ser-Choong
    [J]. 2019 IEEE 21ST ELECTRONICS PACKAGING TECHNOLOGY CONFERENCE (EPTC), 2019, : 171 - 174
  • [39] Simplified 20-μm Pitch Vertical Interconnection Process for 3D Chip Stacking
    Sakuma, Katsuyuki
    Nagai, Noriyasu
    Saito, Mikiko
    Mizuno, Jun
    Shoji, Shuichi
    [J]. IEEJ TRANSACTIONS ON ELECTRICAL AND ELECTRONIC ENGINEERING, 2009, 4 (03) : 339 - 344
  • [40] Development of Cu/Ni/SnAg Microbump Bonding Processes for Thin Chip-on-Chip Packages Via Wafer-Level Underfill Film
    Lee, Chang-Chun
    Yang, Tsung-Fu
    Kao, Kuo-Shu
    Cheng, Ren-Chin
    Zhan, Chau-Jie
    Chen, Tai-Hong
    [J]. IEEE TRANSACTIONS ON COMPONENTS PACKAGING AND MANUFACTURING TECHNOLOGY, 2012, 2 (09): : 1412 - 1419